eRAN Feature Documentation
Product Version: eRAN12.1
Library Version: 12
Date: 2019-02-20
For any question, please contact us.
Copyright © Huawei Technologies Co., Ltd. 2019. All rights reserved.
Scheduling
Contents
6.2.1.12 Scheduling
eRAN
Scheduling Feature Parameter
Description
Issue
07
Date
2017-12-06
HUAWEI TECHNOLOGIES CO., LTD.
Copyright © Huawei Technologies Co., Ltd. 2019. All rights reserved.
No part of this document may be reproduced or transmitted in any form or by any means without prior written consent of Huawei Technologies Co., Ltd.
Trademarks and Permissions
and other Huawei trademarks are trademarks of Huawei Technologies Co., Ltd.
All other trademarks and trade names mentioned in this document are the property of their respective holders.
Notice
The purchased products, services and features are stipulated by the contract made between Huawei and the customer. All or part of the products, services and features described in this
document may not be within the purchase scope or the usage scope. Unless otherwise specified in the contract, all statements, information, and recommendations in this document are
provided "AS IS" without warranties, guarantees or representations of any kind, either express or implied.
The information in this document is subject to change without notice. Every effort has been made in the preparation of this document to ensure accuracy of the contents, but all statements,
information, and recommendations in this document do not constitute a warranty of any kind, express or implied.
Huawei Technologies Co., Ltd.
Address:
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Website:
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Email:
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6.2.1.12 Contents
1 About This Document
1.1 Scope
1.2 Intended Audience
1.3 Change History
1.4 Differences Between eNodeB Types
2 Overview
2.1 Introduction
2.2 Scheduler Principles
2.2.1 Inputs
2.2.2 Basic Functions
2.2.3 Outputs
2.3 Features Involved in Scheduling
2.4 Benefits
3 DL Scheduling
3.1 DL Scheduling Procedure
3.2 Control-Plane Information Scheduling
3.3 DL Scheduling for Retransmissions
3.3.1 Overview
3.3.2 HARQ Retransmissions
3.3.3 Maximum Number of HARQ Retransmissions
3.3.4 Resource Allocation for HARQ Retransmissions
3.4 DL Scheduling for Initial Transmissions
3.4.1 Selecting UEs for DL Scheduling
3.4.2 DL Scheduling Resource Acquisition
3.4.2.1 Overview
3.4.2.2 Frequency Diversity Scheduling
3.4.2.3 Frequency Selective Scheduling
3.4.2.4 Doppler Measurements
3.4.3 MCS Selection During DL Scheduling
3.4.4 Determining the Number and Positions of RBs for DL Scheduling
3.4.4.1 Number and Positions of RBs for DL Scheduling
3.4.4.2 PDSCH Efficiency Improvement
3.4.4.2.1 MCS Selection with Prioritized RBs
3.4.4.2.2 MCS Selection for Transmission of Small-Amount Data
3.4.4.2.3 Adaptive Power Allocation for Cell-Edge UEs
3.4.4.2.4 PDCCH and PDSCH Resource Balancing
3.4.4.3 RB Blocking at Micro eNodeBs
3.5 Scheduling Termination for Abnormal UEs
3.6 Manual Blocking of PDSCH RBs
4 DL Enhanced Scheduling
4.1 DL CQI Adjustment
4.1.1 Overview
4.1.2 Principles for DL CQI Adjustment
4.1.3 Target IBLER for DL CQI Adjustment
4.1.4 Step for CQI Adjustment
4.1.5 Period for DL CQI Adjustment
4.1.6 Initial Value of CQI Adjustment
4.2 DL Dynamic Scheduling
4.2.1 Overview
4.2.2 GBR Service Priority Calculation
4.2.3 Non-GBR Service Priority Calculation
4.2.4 Resource Proportions for GBR and Non-GBR Services
4.2.5 DL AMBR Control over Non-GBR Services
4.2.6 Delayed Scheduling of DL RLC Status Reports
4.3 DL Non-GBR Packet Bundling
4.4 DL RB Allocation
4.5 DL Traffic-Model-based Scheduling
5 UL Scheduling
5.1 UL Scheduling Procedure
5.2 UL Scheduling Triggering
5.3 UL Scheduling for Retransmissions
5.3.1 Overview
5.3.2 Retransmission Mode
5.3.3 Retransmission Upon Detection of PUSCH DTX
5.3.4 Maximum Number of UL HARQ Retransmissions
5.3.5 Resource Allocation for HARQ Retransmissions
5.4 UL Scheduling for Initial Transmissions
5.4.1 Selecting UEs for UL Scheduling
5.4.1.1 PDCCH and PUSCH Resource Balancing
5.4.1.2 UL Scheduling for UEs with Aperiodic CQI Reporting
5.4.1.3 Proactive Scheduling for Uplink Signaling
5.4.1.4 Scheduling Termination for Abnormal UEs
5.4.2 UL Scheduling Resource Acquisition
5.4.2.1 PUSCH Resources
5.4.2.2 Frequency Selective Scheduling
5.4.2.3 Determining the Number of RBs for UL Scheduling
5.4.2.3.1 Scheduler-controlled Power
5.4.2.3.2 Optimization of UL RLC Segment Reduction
5.4.3 Determining MCSs for UL Scheduling
5.4.3.1 Overview
5.4.3.2 SINR Adjustment
5.4.3.2.1 Target IBLER Adaptation
5.4.3.2.2 PAMC-based SINR Adjustment
5.4.3.2.3 SINR Adjustment Upon Detection of PUSCH DTX
5.4.3.2.4 SRI Detection
5.4.3.3 Initial MCS Selection
5.4.3.4 MCS Adjustment
5.5 UL Multi-Cluster
5.6 Manual Blocking of PUSCH RBs
6 UL Enhanced Scheduling
6.1 UL QoS Management
6.1.1 Service Rate Control on the eNodeB
6.1.2 UE Parameter Configurations for UL QoS
6.1.3 QoS Rate Guarantee for a Multi-Service UE
6.2 UL Preallocation
6.2.1 Preallocation Modes
6.2.2 Parameter Settings for Preallocation
6.2.2.1 Cell-level Preallocation Configurations
6.2.2.2 QCI-level Preallocation Configurations
6.3 Uplink Traffic Model Based Scheduling
7 Related Features
7.1 LBFD-001006 AMC
7.2 LBFD-002005 DL Asynchronous HARQ
7.3 LBFD-002006 UL Synchronous HARQ
7.4 LBFD-002025 Basic Scheduling
7.5 LBFD-060102 Enhanced UL Frequency Selective Scheduling
7.6 LBFD-060103 Enhanced DL Frequency Selective Scheduling
7.7 LBFD-070102 MBR>GBR Configuration
7.8 LBFD-070106 PDSCH Efficiency Improvement
7.9 LBFD-00101501 CQI Adjustment
7.10 LBFD-00101502 Dynamic Scheduling
7.11 LOFD-001109 DL Non-GBR Packet Bundling
7.12 LOFD-110205 Traffic Model Based Performance Optimization
7.13 LBFD-121102 eRAN12.1 Introduction Package
8 Network Impact
8.1 LBFD-001006 AMC
8.2 LBFD-002005 DL Asynchronous HARQ
8.3 LBFD-002006 UL Synchronous HARQ
8.4 LBFD-002025 Basic Scheduling
8.5 LBFD-060102 Enhanced UL Frequency Selective Scheduling
8.6 LBFD-060103 Enhanced DL Frequency Selective Scheduling
8.7 LBFD-070102 MBR>GBR Configuration
8.8 LBFD-070106 PDSCH Efficiency Improvement
8.9 LBFD-00101501 CQI Adjustment
8.10 LBFD-00101502 Dynamic Scheduling
8.11 LOFD-001109 DL Non-GBR Packet Bundling
8.12 LOFD-110205 Traffic Model Based Performance Optimization
8.13 LBFD-121102 eRAN12.1 Introduction Package
9 Engineering Guidelines for Basic DL Scheduling Features
9.1 When to Use
9.1.1 LBFD-002025 Basic Scheduling
9.1.2 LBFD-060103 Enhanced DL Frequency Selective Scheduling
9.1.3 LBFD-070102 MBR>GBR Configuration
9.1.4 LBFD-070106 PDSCH Efficiency Improvement
9.2 Required Information
9.3 Planning
9.4 Deploying Basic Scheduling
9.4.1 Requirements
9.4.2 Precautions
9.4.3 Data Preparation
9.4.3.1 Required Data
9.4.3.2 Scenario-specific Data
9.4.3.2.1 DL HARQ Retransmission
9.4.3.2.2 Static MCS Timer for Handovers
9.4.3.2.3 RB Blocking at Micro eNodeBs
9.4.4 Activation
9.4.5 Activation Observation
9.4.6 Reconfiguration
9.4.7 Deactivation
9.5 Deploying Enhanced DL Frequency Selective Scheduling
9.5.1 Requirements
9.5.2 Precautions
9.5.3 Data Preparation
9.5.4 Activation
9.5.5 Activation Observation
9.5.6 Reconfiguration
9.5.7 Deactivation
9.6 Deploying MBR>GBR Configuration
9.6.1 Requirements
9.6.2 Precautions
9.6.3 Data Preparation
9.6.4 Activation
9.6.5 Activation Observation
9.6.6 Reconfiguration
9.6.7 Deactivation
9.7 Deploying PDSCH Efficiency Improvement
9.7.1 Requirements
9.7.2 Precautions
9.7.3 Data Preparation
9.7.4 Activation
9.7.5 Activation Observation
9.7.6 Reconfiguration
9.7.7 Deactivation
9.8 Performance Monitoring
9.9 Parameter Optimization
9.10 Possible Issues
10 Engineering Guidelines for Enhanced DL Scheduling Features
10.1 When to Use
10.1.1 LBFD-00101501 CQI Adjustment
10.1.2 LBFD-00101502 Dynamic Scheduling
10.1.3 LOFD-001109 DL Non-GBR Packet Bundling
10.1.4 LOFD-110205 Traffic Model Based Performance Optimization
10.2 Required Information
10.3 Planning
10.4 Deploying CQI Adjustment
10.4.1 Requirements
10.4.2 Precautions
10.4.3 Data Preparation
10.4.3.1 Required Data
10.4.3.2 Scenario-specific Data
10.4.3.2.1 DL Target IBLER Adaptation
10.4.3.2.2 Optimized CQI Adjustment Value
10.4.3.2.3 Step for CQI Adjustment
10.4.3.2.4 Initial Value of CQI Adjustment
10.4.4 Activation
10.4.5 Activation Observation
10.4.6 Reconfiguration
10.4.7 Deactivation
10.5 Deploying Dynamic Scheduling
10.5.1 Requirements
10.5.2 Precautions
10.5.3 Data Preparation
10.5.3.1 Required Data
10.5.3.2 Scenario-specific Data
10.5.3.2.1 QCI Configurations for DL Non-GBR Services
10.5.3.2.2 Doppler Measurement Level Selection
10.5.3.2.3 RBG Allocation Policy
10.5.3.2.4 EPF Scheduling Enhancement
10.5.3.2.5 Scheduling Termination for Abnormal UEs
10.5.3.2.6 Stopping Aperiodic CQI Reporting When No Scheduling Is Performed
10.5.3.2.7 DL AMBR Control over Non-GBR Services
10.5.3.2.8 Delayed Scheduling of DL RLC Status Reports
10.5.4 Activation
10.5.5 Activation Observation
10.5.6 Reconfiguration
10.5.7 Deactivation
10.6 Deploying DL Non-GBR Packet Bundling
10.6.1 Requirements
10.6.2 Precautions
10.6.3 Data Preparation
10.6.4 Activation
10.6.5 Activation Observation
10.6.6 Reconfiguration
10.6.7 Deactivation
10.7 Deploying the Traffic Model Based Performance Optimization Feature
10.7.1 Requirements
10.7.2 Precautions
10.7.3 Data Preparation
10.7.4 Activation
10.7.5 Activation Observation
10.7.6 Reconfiguration
10.7.7 Deactivation
10.8 Performance Monitoring
10.9 Parameter Optimization
10.10 Possible Issues
11 Engineering Guidelines for Basic UL Scheduling Features
11.1 When to Use
11.1.1 LBFD-002025 Basic Scheduling
11.1.2 LBFD-060102 Enhanced UL Frequency Selective Scheduling
11.1.3 LBFD-070102 MBR>GBR Configuration
11.2 Required Information
11.3 Planning
11.4 Deploying Basic Scheduling
11.4.1 Requirements
11.4.2 Precautions
11.4.3 Data Preparation
11.4.4 Activation
11.4.5 Activation Observation
11.4.6 Reconfiguration
11.4.7 Deactivation
11.5 Deploying Enhanced UL Frequency Selective Scheduling
11.5.1 Requirements
11.5.2 Precautions
11.5.3 Data Preparation
11.5.3.1 Required Data
11.5.3.2 Scenario-specific Data
11.5.3.2.1 UL Frequency Selective Scheduling Based on the Estimated UE Speed
11.5.3.2.2 Interference-based Frequency Selective Scheduling
11.5.4 Activation
11.5.5 Activation Observation
11.5.6 Reconfiguration
11.5.7 Deactivation
11.6 Deploying MBR>GBR Configuration
11.6.1 Requirements
11.6.2 Precautions
11.6.3 Data Preparation
11.6.4 Activation
11.6.5 Activation Observation
11.6.6 Reconfiguration
11.6.7 Deactivation
11.7 Performance Monitoring
11.8 Parameter Optimization
11.9 Possible Issues
12 Engineering Guidelines for Enhanced UL Scheduling Features
12.1 When to Use
12.1.1 LBFD-00101502 Dynamic Scheduling
12.1.2 LOFD-110205 Traffic Model Based Performance Optimization
12.2 Required Information
12.3 Deploying Dynamic Scheduling
12.3.1 Requirements
12.3.2 Precautions
12.3.3 Data Preparation
12.3.3.1 Required Data
12.3.3.2 Scenario-specific Data
12.3.3.2.1 QCI Configurations for UL Non-GBR Services
12.3.3.2.2 UL Min-GBR Guarantee
12.3.3.2.3 Logical Channel Group
12.3.3.2.4 SINR Adjustment
12.3.3.2.5 UL Preallocation
12.3.3.2.6 Setting the SRI False Alarm Detection Threshold
12.3.3.2.7 Scheduling Termination for Abnormal UEs
12.3.3.2.8 Scheduler-controlled Power
12.3.3.2.9 PDCCH and PUSCH Resource Balancing
12.3.3.2.10 UL RLC Segment Reduction
12.3.3.2.11 PUCCH RB Occupation by PUSCH
12.3.3.2.12 Proactive Scheduling for Uplink Signaling
12.3.3.2.13 Data Amount Adaptation in UL SR-based Scheduling
12.3.4 Activation
12.3.5 Activation Observation
12.3.6 Reconfiguration
12.3.7 Deactivation
12.4 Deploying the Traffic Model Based Performance Optimization Feature
12.4.1 Requirements
12.4.2 Precautions
12.4.3 Data Preparation
12.4.4 Activation
12.4.5 Activation Observation
12.4.6 Reconfiguration
12.4.7 Deactivation
12.5 Performance Monitoring
12.6 Parameter Optimization
12.7 Possible Issues
13 Parameters
14 Counters
15 Glossary
16 Reference Documents
1
About This Document
1.1 Scope
This document describes scheduling, including its technical principles, related features, network impact, and engineering guidelines.
This document covers the following features:
• LBFD-001006 AMC
• LBFD-002005 DL Asynchronous HARQ
• LBFD-002006 UL Synchronous HARQ
• LBFD-002025 Basic Scheduling
• LBFD-060102 Enhanced UL Frequency Selective Scheduling
• LBFD-060103 Enhanced DL Frequency Selective Scheduling
• LBFD-070102 MBR>GBR Configuration
• LBFD-070106 PDSCH Efficiency Improvement
• LBFD-00101501 CQI Adjustment
• LBFD-00101502 Dynamic Scheduling
• LOFD-001109 DL Non-GBR Packet Bundling
• LOFD-110205 Traffic Model Based Performance Optimization
• LBFD-121102 eRAN12.1 Introduction Package
Feature compatibility with specific terminal models is not presented in this document. For compatibility information, contact Huawei engineers.
Any parameters, alarms, counters, or managed objects (MOs) described herein apply only to the corresponding software release. For future software releases, refer to the
corresponding updated product documentation.
This document applies only to LTE FDD. Any "LTE" in this document refers to LTE FDD, and "eNodeB" refers to LTE FDD eNodeB.
1.2 Intended Audience
This document is intended for personnel who:
• Need to understand the features described herein
• Work with Huawei products
1.3 Change History
This section provides information about the changes in different document versions. There are two types of changes:
• Feature change
Changes in features and parameters of a specified version as well as the affected entities
• Editorial change
Changes in wording or addition of information and any related parameters affected by editorial changes. Editorial change does not specify the affected entities.
eRAN12.1 07 (2017-12-06)
This issue includes the following changes.
Change Type
Change Description
Parameter Change
Affected Entity
Feature change
None
None
N/A
Editorial change
Revised descriptions in this document to improve None
readability.
N/A
eRAN12.1 06 (2017-10-23)
This issue includes the following changes.
Change Type
Change Description
Parameter Change
Affected Entity
Feature change
None
None
N/A
Editorial change
Revised descriptions in this document to improve None
readability.
N/A
Change Type
Change Description
Parameter Change
Affected Entity
eRAN12.1 05 (2017-08-30)
This issue includes the following changes.
Change Type
Change Description
Parameter Change
Affected Entity
Feature change
None
None
N/A
Editorial change
Revised descriptions in this document to improve None
readability.
N/A
eRAN12.1 04 (2017-06-29)
This issue includes the following changes.
Change Type
Change Description
Parameter Change
Affected Entity
Feature change
None
None
N/A
Editorial change
Revised descriptions in this document to improve None
readability.
N/A
eRAN12.1 03 (2017-05-31)
This issue includes the following changes.
Change Type
Change Description
Parameter Change
Affected Entity
Feature change
None
None
N/A
Editorial change
Revised descriptions in this document to improve None
readability.
N/A
eRAN12.1 02 (2017-04-26)
This issue includes the following changes.
Change Type
Change Description
Parameter Change
Affected Entity
Feature change
None
None
N/A
Editorial change
Revised descriptions in this document to improve None
readability.
N/A
eRAN12.1 01 (2017-03-08)
This issue includes the following changes.
Change Type
Change Description
Parameter Change
Affected Entity
Feature change
Added the UL Multi-Cluster function. For details,
see 5.5 UL Multi-Cluster.
Added the UlMultiClusterSwitch option to the
CellAlgoSwitch.UlSchExtSwitch parameter.
Macro, micro, and
LampSite eNodeBs
Editorial change
Revised descriptions in this document to improve None
readability.
N/A
eRAN12.1 Draft A (2016-12-30)
Draft A (2016-12-30) of eRAN12.1 introduces the following changes to Issue 02 (2016-04-20) of eRAN11.1.
Change Type
Change Description
Feature change
Added efficiency improvement for adaptive DL
HARQ. For details, see 3.3.4 Resource Allocation for
HARQ Retransmissions.
Added the PAMC function. For details, see:
Parameter Change
Affected Entity
• Added the PreciseMcsAdaptSwitch option to Macro, micro, and
LampSite eNodeBs
the CellAlgoSwitch.CqiAdjAlgoSwitch
parameter.
• Added the
CellDlschAlgo.DlFirstHarqTxTbsIncNum
parameter.
Added the UlPAMCSwitch option to the
CellAlgoSwitch.UlSchExtSwitch parameter.
Macro, micro, and
LampSite eNodeBs
Added flexible target IBLER adaptation. For
details, see 4.1.3 Target IBLER for DL CQI Adjustment.
Added the following parameters:
Macro, micro, and
LampSite eNodeBs
Changed CQI Adjustment and Dynamic
Scheduling from optional features into basic
features. For details, see 1.1 Scope.
None
Macro, micro, and
LampSite eNodeBs
Added the PreciseMcsAdaptSwitch option to the
CellAlgoSwitch.CqiAdjAlgoSwitch parameter.
Macro, micro, and
LampSite eNodeBs
• 5.4.3.2.2 PAMC-based SINR Adjustment
• 5.4.3.3 Initial MCS Selection
• CellDlschAlgo.LowIblerTargetTbsIdxThld
• CellDlschAlgo.HighIblerTargetTbsIdxThld
Change Type
Change Description
Parameter Change
Affected Entity
Added SRI detection optimization. For details,
see 5.4.3.2.4 SRI Detection.
Added the SriDetectEnhanceSW option to the
CellPucchAlgo.SriAlgoSwitch parameter.
Macro, micro, and
LampSite eNodeBs
Added the feature LBFD-121102 eRAN12.1
Introduction Package.
None
Macro, micro, and
LampSite eNodeBs
Added adaptive power allocation for cell-edge
UEs. For details, see 3.4.4.2.3 Adaptive Power
Allocation for Cell-Edge UEs.
Added the AdptCellEdgePwrAllocSw option to the
CellAlgoSwitch.CellDlCoverEnhanceSwitch parameter.
Macro, micro, and
LampSite eNodeBs
Added data volume adaptation in SR-based
scheduling. For details, see 5.2 UL Scheduling
Triggering.
Added the CellUlschAlgo.UlSrSchDataVolAdptOptUpThd
parameter.
Macro, micro, and
LampSite eNodeBs
Added search direction randomization for the
sliding window in UL frequency selective
scheduling. For details, see 5.4.2.2 Frequency
Selective Scheduling.
Added the UlFssWindSearchDirRandSw option to the Macro, micro, and
CellAlgoSwitch.UlSchExtSwitch parameter.
LampSite eNodeBs
Added optimized calculation of the number of
RBs for cell-edge UEs. For details, see 5.4.2.3.1
Scheduler-controlled Power.
Added the eNodeBAlgoSwitch.UlResManageOptSw
Macro, micro, and
parameter and its option UL_RBCALC_OPT_SWITCH LampSite eNodeBs
(UlRbCalcOptSwitch).
Enhanced preallocation for sparse-packet
services. For details, see:
Added the EnhancedSchForSparseSwitch option to
the CellAlgoSwitch.UlSchExtSwitch parameter.
Macro, micro, and
LampSite eNodeBs
Added delayed scheduling of DL RLC status
reports. For details, see 4.2.6 Delayed Scheduling of
DL RLC Status Reports.
Added the DlRLCStateReportSchDelaySw option to
the CellAlgoSwitch.DlSchSwitch parameter.
Macro, micro, and
LampSite eNodeBs
Added CQI reliability optimization. For details,
see 3.4.3 MCS Selection During DL Scheduling.
Added the following options to the
CellCqiAdjAlgo.CqiOptSwitch parameter:
Macro, micro, and
LampSite eNodeBs
Added adaptive compensation for the initial value
of CQI adjustment. For details, see 4.1.6 Initial
Value of CQI Adjustment.
• 6.2.1 Preallocation Modes
• 6.2.2.1 Cell-level Preallocation Configurations
• PUSCH_CQI_FALSE_DETECTION_SW
• PUCCH_CQI_FALSE_DETECTION_SW
Editorial change
Added MCS selection for the transmission of
small-amount data. For details, see 3.4.4.2.2 MCS
Selection for Transmission of Small-Amount Data.
Added the SmallPktMcsSelectAlgoSw option to the
CellAlgoSwitch.DlSchSwitch parameter.
Macro, micro, and
LampSite eNodeBs
Added setting of the validity duration of subband
CQIs reported by UEs in frequency selective
scheduling and optimization of the period of
triggering aperiodic CQI reporting from UEs in
frequency selective scheduling. For details, see
3.4.2.3 Frequency Selective Scheduling.
Added the following parameters:
Macro, micro, and
LampSite eNodeBs
• CellDlschAlgo.FSUEAperCQITrigPeriod
• CellDlschAlgo.FSUESbCQIValidityPeriod
Moved UL interference randomization from
None
LBFD-060102 Enhanced UL Frequency Selective
Scheduling, which is described in this document,
to LBFD-00202202 Uplink Static Inter-Cell
Interference Coordination, which is described in
ICIC.
Macro, micro, and
LampSite eNodeBs
Moved DL interference randomization from
LBFD-00101502 Dynamic Scheduling, which is
described in this document, to LBFD-00202201
Downlink Static Inter-Cell Interference
Coordination, which is described in ICIC.
None
Macro, micro, and
LampSite eNodeBs
Moved the descriptions of the following features
from this document to Modulation Schemes Feature
Parameter Description:
None
N/A
• LBFD-001005 Modulation: DL/UL
QPSK, DL/UL 16QAM, DL 64QAM
• LOFD-001006 UL 64QAM
1.4 Differences Between eNodeB Types
Feature Support by Macro, Micro, and LampSite eNodeBs
Feature ID
Feature Name
Supported by Macro
eNodeBs
Supported by Micro eNodeBs
Supported by LampSite
eNodeBs
LBFD-001006
AMC
Yes
Yes
Yes
LBFD-002005
DL Asynchronous HARQ
Yes
Yes
Yes
LBFD-002006
UL Synchronous HARQ
Yes
Yes
Yes
Feature ID
Feature Name
Supported by Macro
eNodeBs
Supported by Micro eNodeBs
Supported by LampSite
eNodeBs
LBFD-002025
Basic Scheduling
Yes
Yes
Yes
LBFD-060102
Enhanced UL Frequency Selective
Scheduling
Yes
Yes
No
LBFD-060103
Enhanced DL Frequency Selective
Scheduling
Yes
Yes
Yes
LBFD-070102
MBR>GBR Configuration
Yes
Yes
Yes
LBFD-070106
PDSCH Efficiency Improvement
Yes
Yes
Yes
LBFD-00101501
CQI Adjustment
Yes
Yes
Yes
LBFD-00101502
Dynamic Scheduling
Yes
Yes
Yes
LOFD-001109
DL Non-GBR Packet Bundling
Yes
Yes
Yes
LOFD-110205
Traffic Model Based Performance
Optimization
Yes
Yes
Yes
LBFD-121102
eRAN12.1 Introduction Package
Yes
Yes
Yes
Function Implementation in Macro, Micro, and LampSite eNodeBs
Function
Difference
Inputs to the DL scheduler
Micro eNodeBs do not support inter-cell interference coordination (ICIC).
Inputs to the UL scheduler
Micro eNodeBs do not support ICIC.
UL scheduling procedure
Micro and LampSite eNodeBs do not support uplink coordinated multipoint reception (UL CoMP).
Doppler measurement
Micro eNodeBs do not support Doppler measurement.
Target IBLER adaptation
Micro eNodeBs do not support target IBLER adaptation.
RB blocking
RB blocking is specific to micro eNodeBs and is not supported by macro eNodeBs.
2
Overview
2.1 Introduction
The LTE system adopts shared-channel transmissions in which time-frequency resources are dynamically shared by UEs. eNodeBs perform scheduling to allocate timefrequency resources for uplink (UL) and downlink (DL) transmissions.
Schedulers
Schedulers are located at the Media Access Control (MAC) layer. The basic function of a scheduler is to allocate appropriate system resources to UEs in each subframe for UL
and DL transmissions, without which the UEs would be unable to transmit and receive data.
Huawei schedulers are designed to achieve a balance between single-UE performance and overall network capacity and provide end-to-end quality of service (QoS)
management solutions for better QoS experience.
RB
A resource block (RB) is 180 kHz wide, comprising 12 subcarriers, and lasts for one 0.5 ms timeslot. The minimum scheduling unit consists of two RBs, comprising 12
subcarriers and 1 subframe (lasting for 1 ms). Figure 2-1 shows a minimum scheduling unit.
Figure 2-1 Minimum scheduling unit
Multiple RBs can be allocated to one UE in each transmission time interval (TTI). The maximum number of available RBs in the frequency domain in a cell depends on the cell
bandwidth, as listed in Table 2-1.
Table 2-1 Available RBs per bandwidth
Bandwidth (MHz)
Number of Available RBs
1.4
6
3
15
5
25
10
50
15
75
20
100
MCS
Modulation and coding schemes (MCSs) are selected during scheduling. Each MCS represents a particular combination of a modulation scheme and a channel code rate. The
modulation schemes include quadrature phase shift keying (QPSK), 16 quadrature amplitude modulation (16QAM), and 64QAM. Among them:
• QPSK modulates two information bits into each modulation symbol.
• 16QAM modulates four information bits into each modulation symbol.
• 64QAM modulates six information bits into each modulation symbol.
Channel code rates, which are typically less than 1, indicate the proportion of information bits among physical channel bits after redundancy has been applied. Modulation orders
represent the number of information bits modulated into each modulation symbol. A high-order modulation scheme and a high code rate can be used when channel conditions
are favorable. The higher the modulation order and code rate, the higher the transmission efficiency. However, a higher-order modulation scheme requires a higher signal-tonoise ratio (SNR) than a lower-order modulation scheme to achieve the same block error rate (BLER).
2.2 Scheduler Principles
In an LTE system, schedulers are located at the MAC layer. Schedulers allocate resources on the physical shared channel (PSCH) for UEs and select appropriate MCSs for the
transmission of system information and user data.
Figure 2-2 shows the DL scheduler and Figure 2-3 shows the UL scheduler.
Figure 2-2 DL scheduler
Figure 2-3 UL scheduler
2.2.1 Inputs
UE-related Inputs
• UE capability
The UE capability is indicated by one of eight UE categories specified in section 4.1 in 3GPP TS 36.306 V10.1.0 (2011-03). The maximum numbers of bits and layers
that can be transmitted in each TTI depend on the UE category.
• UE measurement gaps
A UE measurement gap refers to the time during which the UE can perform inter-frequency or inter-RAT measurements at another frequency. For details, see Overview
of Mobility Management in Connected Mode Feature Parameter Description.
• Sync status
This input indicates whether the UE is in the in-sync or out-of-sync state. For details, see Connection Management Feature Parameter Description.
Data-related Inputs
• Data buffer status (DL)
This input indicates the amount of to-be-scheduled data in the Radio Link Control (RLC) buffer.
• Scheduling request (UL)
A scheduling request (SR) is 1-bit information that a UE sends to the eNodeB to request UL resources for data transmission.
• Buffer status report (UL)
A UE sends a buffer status report (BSR) to the eNodeB to indicate the amount of data in the UL buffer of the UE.
• HARQ feedback
HARQ feedback can be acknowledgment (ACK), negative acknowledgment (NACK), or discontinuous transmission (DTX). These indicate whether data has been
correctly transmitted or retransmitted. While signaling scheduling and semi-persistent scheduling have the highest priority, Huawei eNodeBs allocate the second
highest priority to scheduling of HARQ retransmissions.
QoS Parameters
Bearer QoS requirements are transmitted from the evolved packet core (EPC) to the eNodeB through the S1 Application Part (S1AP).
The main QoS parameters of EPS bearers are as follows:
• QoS class identifier (QCI)
• Guaranteed bit rate (GBR)
• Maximum bit rate (MBR) of GBR services
• Aggregate maximum bit rate (AMBR) of non-GBR services
The standard QoS attributes are as follows:
• Resource type (GBR or non-GBR)
• Priority
• Packet delay budget (PDB)
• Packet error loss rate
For details, see section 6.1.7 in 3GPP TS 23.203 V10.3.0 (2011-03).
Huawei eNodeBs support extended QCIs. For details, see QoS Management Feature Parameter Description.
Channel State Inputs
• DL schedulers schedule UEs based on the channel state information (CSI). UEs estimate the channel state based on the instantaneous DL channel quality. The CSI
includes:
◾ Rank indication (RI)
In spatial multiplexing transmission mode, UEs report RI to the eNodeB, providing information about the channel rank that the DL scheduler uses for DL
transmissions.
◾ Precoding matrix indication (PMI)
In closed-loop spatial multiplexing transmission mode, UEs report PMI to the eNodeB, recommending a precoding matrix to the DL scheduler.
◾ Channel quality indicator (CQI)
UEs report CQIs to the eNodeB, providing information about DL channel quality that the DL scheduler can use for link adaptation.
Huawei eNodeBs support both periodic and aperiodic CSI reporting and determine which reporting mode is to be used. For details, see Channel State Management
Feature Parameter Description.
• UL schedulers schedule UEs based on UL signal to interference plus noise ratios (SINRs), which indicate UL channel conditions. The eNodeB obtains SINRs by
measuring sounding reference signals (SRSs) and demodulation reference signals (DMRSs).
DL Power
The DL transmit (TX) power is shared by all UEs in a cell. According to 3GPP Release 8, DL TX power is determined by the cell-specific reference signal (RS) energy per
resource element (EPRE), PA, and PB. The eNodeB sends UEs the information element (IE) PDSCH-ConfigCommon that contains cell-specific RS EPRE and PB, and the IE
PDSCH-ConfigDedicated that contains PA.
Power Headroom Report
A power headroom report (PHR) indicates the power status of a UE. Power headroom is the difference between the maximum allowed TX power and the used TX power in the
UL. UEs send PHRs to the eNodeB periodically or in event-triggered mode.
The power headroom of a UE ranges from –23 dB to +40 dB in a PHR. Based on the PHR, the UL scheduler calculates the number of RBs required to maintain the maximum
power spectrum density, which is specified by the UL power control module. For details, see Power Control Feature Parameter Description.
MIMO Transmission Mode
The multiple-input multiple-output (MIMO) transmission mode is an input to the DL scheduler. Chapter 7 in 3GPP TS 36.213 defines nine MIMO transmission modes. For details
about how to select a MIMO transmission mode, see MIMO Feature Parameter Description.
MU-MIMO Scheme
The multi-user MIMO (MU-MIMO) scheme is an input to the UL scheduler. It indicates the MIMO scheme to be used in UL scheduling. For details, see MIMO Feature Parameter
Description.
ICIC-related Inputs
Inter-cell interference coordination (ICIC) divides the channel bandwidth of each cell involved into a center band and an edge band. This input determines whether to schedule
UEs in the center band or edge band. For details about band selection, see Adaptive ICIC Feature Parameter Description.
2.2.2 Basic Functions
Schedulers perform the following basic functions:
• Priority calculation
Based on the inputs, priority calculation determines the scheduling priorities of bearers and UEs to be scheduled. This satisfies the QoS requirements of UEs and
maximizes system throughput.
• MCS selection
Based on the inputs, MCS selection determines an MCS for each UE to be scheduled.
• Resource allocation
Based on the data volume and the selected MCS, resource allocation determines the number of RBs to be allocated to each UE as well as the position of each RB.
2.2.3 Outputs
Schedulers determine the following:
• UEs to be scheduled
• MCS
• Number of RBs to be allocated, position of each RB, and transport block sizes (TBSs)
• MIMO mode
2.3 Features Involved in Scheduling
Function
Feature ID
Feature Name
Description
User selection
LBFD-002025
Basic Scheduling
Includes three scheduling policies:
• Maximum carrier-to-interference ratio (max C/I)
• Round robin (RR)
• Proportional fair (PF)
LBFD-00101502
Dynamic Scheduling
Includes the scheduling policy enhanced proportional fair (EPF), which offers the
following benefits:
• Helps meet QoS requirements of services with various QCIs.
• Provides differentiated services for UEs.
• Helps achieve an optimal balance between fairness among UEs and cell
throughput while meeting QoS requirements.
MCS selection
Scheduling
resource allocation
Others
LBFD-070102
MBR>GBR Configuration
Allows the MBR to be greater than the GBR for GBR bearers, reducing service
interruptions and improving resource utilization and user experience.
LOFD-001109
DL Non-GBR Packet
Bundling
Enables the eNodeB to collect multiple DL data packets before sending them,
thereby reducing PDCCH overhead and meeting service delay requirements.
LOFD-110205
Traffic Model Based
Performance Optimization
Preferentially schedules the users performing small-packet services and having
good signal quality in user data transmission, reducing the user wait time. This
feature increases user-perceived data rates and improves user experience while
basically maintaining cell capacity.
LBFD-001006
AMC
Adaptively selects an optimal MCS based on channel quality to increase overall
spectral efficiency.
LBFD-00101501
CQI Adjustment
Provides accurate CQIs to be used for DL scheduling, increasing DL throughput.
LBFD-070106
PDSCH Efficiency
Improvement
Improves physical downlink shared channel (PDSCH) resource utilization if idle
RBs are available, increasing DL throughput.
LBFD-060103
Enhanced DL Frequency
Selective Scheduling
Improves system performance based on channel quality differences between subbands.
LBFD-060102
Enhanced UL Frequency
Selective Scheduling
Reduces the impact of UL interference on UE performance and increases cell
throughput and enhances cell edge coverage based on fast fading and
interference distribution on sub-bands.
LBFD-002005
DL Asynchronous HARQ
Provides a fast-retransmission mechanism implemented at the MAC and physical
layers, increasing DL user throughput and reducing DL transmission delay.
LBFD-002006
UL Synchronous HARQ
Provides a fast-retransmission mechanism implemented at the MAC and physical
layers, increasing UL user throughput and reducing UL transmission delay.
2.4 Benefits
Scheduling offers the following benefits:
• Ensures satisfactory system throughput and fairness in resource scheduling.
• Ensures that the QoS requirements of GBR and non-GBR services are fulfilled when both GBR and non-GBR services need to be scheduled in a TTI.
• Enhanced scheduling improves system capacity and network performance.
3
DL Scheduling
3.1 DL Scheduling Procedure
Actions in the DL scheduling procedure are performed sequentially based on their priorities. Figure 3-1 shows the actions and their priorities in the DL scheduling procedure in a
TTI.
Figure 3-1 Actions and their priorities in the DL scheduling procedure
In the preceding procedure, the eNodeB takes the following actions:
1. Schedules common control information. For details, see 3.2 Control-Plane Information Scheduling.
2. Performs semi-persistent scheduling. For details, see VoLTE Feature Parameter Description.
3. Schedules dedicated control information. For details, see 3.2 Control-Plane Information Scheduling.
4. Schedules HARQ retransmission data. For details, see 3.3 DL Scheduling for Retransmissions.
5. Schedules initial transmissions. For details, see 3.4 DL Scheduling for Initial Transmissions.
3.2 Control-Plane Information Scheduling
During scheduling in each subframe, control-plane messages are scheduled before user-plane data. Control-plane information consists of common control information and
dedicated control information.
Common Control Information
Common control information includes broadcast messages (such as SIB1 and other system information), paging messages, and random access (RA) responses. (SIB is short
for system information block.) Scheduling common control information uses QPSK and low coding rates for reliable transmission.
3GPP specifications define three downlink allocation modes:
• Resource allocation type 0
• Resource allocation type 1
• Resource allocation type 2
Resource allocation type 2 is used for allocating resources to common control information. In this allocation mode, the allocated resources are classified into distributed virtual
resource blocks (DVRBs) and localized virtual resource blocks (LVRBs).
• DVRBs are non-contiguous resource blocks. They increase the coverage of common control information in the cell. However, the amount of system resources occupied
by common control information increases, which decreases UE throughput.
• LVRBs are contiguous resource blocks. They decrease the amount of system resources occupied by common control information, which increases UE throughput.
However, the coverage of common control information in the cell decreases.
LVRB allocation mode is currently used.
Dedicated Control Information
Dedicated control information includes the information carried on signaling radio bearer 0 (SRB0), SRB1, and SRB2.
3.3 DL Scheduling for Retransmissions
3.3.1 Overview
This section describes the basic feature LBFD-002005 DL Asynchronous HARQ.
Huawei schedulers use adaptive asynchronous HARQ, in which a UE sends HARQ feedback four TTIs after the initial transmission from the eNodeB and, if the feedback is an
NACK, the eNodeB retransmits the data at least four TTIs after receiving the NACK.
3.3.2 HARQ Retransmissions
Figure 3-2 shows the HARQ retransmission procedure in a TTI.
Figure 3-2 Procedure for HARQ retransmissions
HARQ retransmissions cannot be performed for a UE in any of the following scenarios:
• The UE is in a measurement gap or enters a measurement gap when it sends HARQ feedback.
• The UE enters sleep time in DRX and the HARQ operating status is discontinuous transmission (DTX).
• The UE is not synchronized with the eNodeB or a radio link failure (RLF) occurs.
HARQ retransmissions are scheduled after control-plane messages. The scheduling priorities of different HARQ retransmissions are determined by the wait time. A longer wait
time indicates a higher scheduling priority. If all retransmissions have the same wait time, a retransmission is randomly selected. If DRX is enabled, the wait time is determined
by the DrxParaGroup.DrxReTxTimer parameter. If the wait time of a HARQ retransmission exceeds the specified wait time, the HARQ retransmission is discarded, ensuring
effective retransmissions. For details about DRX, see DRX and Signaling Control Feature Parameter Description.
3.3.3 Maximum Number of HARQ Retransmissions
The maximum number of DL HARQ retransmissions is specified by the CellDlschAlgo.DlHarqMaxTxNum parameter.
• If this parameter is set to a small value, HARQ retransmissions consume few radio resources but radio link reliability decreases.
• If this parameter is set to a large value, radio link reliability increases but HARQ retransmissions consume a lot of radio resources.
DL HARQ retransmissions are stopped when the number of DL HARQ retransmissions reaches the value of the CellDlschAlgo.DlHarqMaxTxNum parameter.
3.3.4 Resource Allocation for HARQ Retransmissions
The eNodeB adaptively selects MCSs for HARQ retransmissions. Due to the use of soft combining with HARQ, HARQ retransmissions can use MCSs with higher indexes than
initial transmissions based on CQI adjustment. The TBS used for HARQ retransmissions is the same as the TBS used for initial transmissions.
When ICIC is enabled, resources at center bands are preferentially allocated to cell center users and resources at edge bands are preferentially allocated to cell edge users. If
the resources at center or edge bands are insufficient, resources of the entire band can be used for allocation.
To efficiently utilize soft combining, efficiency improvement for adaptive DL HARQ can be activated to increase the TBS index for the first DL HARQ retransmission. This function
is controlled by the PreciseMcsAdaptSwitch(PreciseMcsAdaptSwitch) option of the CellAlgoSwitch.CqiAdjAlgoSwitch parameter. The amount of the increase is determined
by the CellDlschAlgo.DlFirstHarqTxTbsIncNum parameter.
If consecutive demodulation failures occur in the HARQ retransmission process, HARQ retransmissions can use a lowered TBS index. The TBS used for HARQ retransmissions
is the same as the TBS used for the initial transmission. Therefore, more RBs are allocated for HARQ retransmissions, which can reduce DL throughput.
The DlRetxTbsIndexAdjOptSwitch option of the CellAlgoSwitch.CqiAdjAlgoSwitch parameter specifies whether HARQ retransmissions use a lowered TBS index.
• When the DlRetxTbsIndexAdjOptSwitch option is selected,
HARQ retransmissions at the (DLHARQMAXTXNUM–1)th and DLHARQMAXTXNUMth times use a lowered TBS index. This increases the benefits of soft combining in
HARQ retransmissions, reducing the DL residual block error rate (RBLER) and service drop rate.
NOTE:
DLHARQMAXTXNUM indicates the maximum number of consecutive HARQ retransmissions and is specified by the CellDlschAlgo.DlHarqMaxTxNum parameter.
• When the DlRetxTbsIndexAdjOptSwitch option is deselected,
HARQ retransmissions do not use a lowered TBS index.
3.4 DL Scheduling for Initial Transmissions
DL scheduling for initial transmissions performs the following operations:
• Acquires DL scheduling resources.
• Selects UEs to be scheduled.
• Determines MCSs to be used.
• Determines the number and positions of RBs to be allocated.
3.4.1 Selecting UEs for DL Scheduling
This section describes LBFD-002025 Basic Scheduling and LBFD-00101502 Dynamic Scheduling.
Huawei eNodeBs support four scheduling policies:
• Maximum carrier-to-interference ratio (Max C/I)
• Round robin (RR)
• Proportional fair (PF)
• Enhanced proportional fair (EPF)
Max C/I, RR, and PF are provided by LBFD-002025 Basic Scheduling. EPF is provided by LBFD-00101502 Dynamic Scheduling. Figure 3-3 shows the relationships between the
four policies.
Figure 3-3 Relationships between the scheduling policies
The differences between the scheduling policies lie in the consideration factors, which are described as follows:
• Max C/I
The Max C/I algorithm only takes channel quality into account when allocating air interface resources and schedules services with the best channel quality at that
moment. This algorithm maximizes system throughput. However, it cannot ensure that UEs in the same cell are equally scheduled because all UEs in a cell cannot
experience the same channel conditions. A UE cannot be scheduled if it is constantly experiencing poor channel conditions. As a result, user experience is poor. This
scheduling algorithm does not ensure that QoS of services can be maintained.
• RR
The RR algorithm allows UEs to take turns using shared resources. Compared with Max C/I, RR ensures scheduling fairness between UEs in a cell. However, it cannot
maximize the system throughput. This scheduling algorithm does not ensure that QoS of services can be maintained.
• PF
The PF algorithm is a compromise between Max C/I and RR. This algorithm takes the scheduling fairness, channel quality, and number of transmitted bits into account.
However, this algorithm does not take QoS requirements into account and therefore cannot ensure satisfactory user experience.
• EPF
The EPF algorithm is an enhanced version of the PF algorithm. Compared with PF, EPF considers user experience and ensures that QoS requirements are fulfilled. In
addition, six capacity factors are available for scheduling priority selection oriented towards capacity or resource fairness in EPF. For details about the selection, see 4.2
DL Dynamic Scheduling.
An operator can select an appropriate scheduling policy by setting the CellDlschAlgo.DlschStrategy parameter. For example, an operator can select Max C/I to achieve high
system throughput for a peak throughput test.
3.4.2 DL Scheduling Resource Acquisition
3.4.2.1 Overview
A basic function of DL scheduling is to obtain DL scheduling resources on the PDSCH. If power allocation is enabled in the DL, DL scheduling needs to obtain resources based
on power control. For details about power control, see Power Control Feature Parameter Description.
Huawei eNodeBs support two DL resource allocation modes:
• Frequency diversity scheduling
• Frequency selective scheduling
The FreqSelSwitch option of the CellAlgoSwitch.DlSchSwitch parameter is used to specify whether to use frequency selective scheduling. Frequency diversity scheduling is
used by default.
3.4.2.2 Frequency Diversity Scheduling
Frequency diversity scheduling does not consider the differences in the frequency-domain channel quality for UEs. The eNodeB calculates the scheduling priorities based on the
wideband CQIs reported by UEs. Based on the priority calculation results, the eNodeB allocates DL resources to the UEs from a low frequency band to a high frequency band,
as shown in Figure 3-4.
Figure 3-4 DL resource allocation in frequency diversity scheduling
3.4.2.3 Frequency Selective Scheduling
This section describes the basic feature LBFD-060103 Enhanced DL Frequency Selective Scheduling.
Frequency selective scheduling considers the differences in the frequency-domain channel quality for UEs and brings gains. The eNodeB calculates the subband-specific
scheduling priorities of UEs based on subband CQIs reported by the UEs and schedules the UEs based on the priorities so that resources in the subbands with the optimum
channel quality are allocated to the UEs. As shown in Figure 3-5, resource block groups (RBGs) a and c are allocated to UE 1 and RBG b is allocated to UE 2 because UE 1 and
UE 2 have the highest scheduling priority in the scheduling queue corresponding to the allocated RBGs.
Figure 3-5 DL resource allocation in frequency selective scheduling
Frequency selective scheduling requires accurate subband CQIs for scheduling priority calculation and resource allocation. To obtain subband CQI information from UEs, the
eNodeB triggers aperiodic CQI reporting. The following describes the parameters and factors affecting aperiodic CQI reporting:
• The CellDlschAlgo.FSUESbCQIValidityPeriod parameter specifies the validity period of subband CQIs aperiodically reported by UEs in frequency selective scheduling.
A larger value of this parameter results in a higher probability that frequency selective scheduling is selected for UEs. The CellDlschAlgo.FSUEAperCQITrigPeriod
parameter specifies the interval at which aperiodic CQI reporting is triggered for UEs in frequency selective scheduling. A larger value of this parameter results in a
smaller number of aperiodic CQI reports, reducing the gains of frequency selective scheduling. If the CellDlschAlgo.FSUEAperCQITrigPeriod parameter value is not
greater than the CellDlschAlgo.FSUESbCQIValidityPeriod parameter value, there is a high probability that frequency selective scheduling is selected for UEs.
• Uplink load affects the interval of aperiodic CQI reporting.
If the uplink load is high, the eNodeB prolongs the subband CQI reporting period and adjusts the CQI reporting mode of UEs. The prolonged CQI reporting period and
the changed CQI reporting mode decrease frequency selective scheduling gains.
• Subband CQIs reported by fast moving UEs cannot reflect channel quality changes in a timely manner. Therefore, frequency selective scheduling works for slowly
moving UEs but not for fast moving UEs.
• If the time since a UE's last downlink DRB scheduling is greater than or equal to the threshold specified by the CellDlschAlgo.NoSchStopACqiThd parameter, the UE
stops aperiodic CQI reporting in the current TTI. Setting this parameter to a small value reduces the number of unnecessary aperiodic CQI reports and thereby
increases uplink throughput.
NOTE:
For more details about aperiodic CQI reporting, see MIMO Feature Parameter Description.
The eNodeB periodically checks channel quality fluctuations and the moving speed of each UE. It starts frequency selective scheduling when the triggering conditions are met,
and stops the scheduling when the triggering conditions are not fulfilled. The CellDlschAlgo.FreqSelJudgePeriod parameter determines the scheduling evaluation period. The
smaller the value of this parameter is, the faster DL frequency selective scheduling is triggered for the UEs meeting the triggering conditions, boosting the improvements in DL
spectral efficiency. However, more aperiodic CQI reports are required to trigger DL frequency selective scheduling, and interference to UL transmission arises. If fast frequency
selective scheduling is enabled, it is recommended that fast Doppler measurement reporting also be enabled.
The number of PDCCH symbols, together with the CellAlgoSwitch.DlSchSwitch and CellPdcchAlgo.PdcchSymNumSwitch parameters, affects the triggering of DL frequency
selective scheduling. The initial number of PDCCH symbols is specified by the CellPdcchAlgo.InitPdcchSymNum parameter. Table 3-1 describes how the number of PDCCH
symbols affects DL frequency selective scheduling under different settings of the CellPdcchAlgo.PdcchSymNumSwitch parameter and FreqSelSwitch under the
CellAlgoSwitch.DlSchSwitch parameter.
Table 3-1 Impact of the number of PDCCH symbols on the triggering of DL frequency selective scheduling
FreqSelSwitch
PdcchSymNumSwitch
Number of PDCCH Symbols
Triggering DL Frequency
Selective Scheduling?
On
On
Maximum number of PDCCH symbols for a
constant period of time
Yes
NOTE:
For details about the maximum number, see section
6.7 "Physical control format indicator channel" in
3GPP TS 36.211.
Off
Others
No
ECFIADAPTIONON
Any adaptively assigned number
Yes
Off
Any permanently assigned number
Yes
N/A
N/A
No
3.4.2.4 Doppler Measurements
Huawei eNodeBs perform Doppler measurements to obtain UE speed information.
The FreqSelJudgeIgnorDopplerSwitch option of the CellAlgoSwitch.DlschSwitch parameter determines whether to use Doppler measurements.
• If the FreqSelJudgeIgnorDopplerSwitch option is selected, DL frequency selective scheduling ignores Doppler measurement levels. This parameter setting applies to
hotspots where UEs move at low speeds, reducing the negative impact of inaccurate Doppler measurements.
• If the FreqSelJudgeIgnorDopplerSwitch option is deselected, DL frequency selective scheduling uses Doppler measurement levels. This parameter setting applies to
common cells.
A Doppler measurement period can be either fast or slow. The period type is determined by the FastReportDopSwitch option of the CellUlschAlgo.DopAlgoSwitch parameter.
• If the FastReportDopSwitch option is selected, a fast Doppler measurement period is used.
• If the FastReportDopSwitch option is deselected, a slow Doppler measurement period is used.
Huawei eNodeBs support Doppler measurement level selection. Doppler measurement levels are specified by the CellUlschAlgo.DopMeasLevel parameter.
• If the parameter is set to CLASS_0, the eNodeB performs Doppler measurements on physical uplink shared channel (PUSCH) demodulation reference signals
(DMRSs) whose SINR is greater than or equal to 5 dB.
• If the parameter is set to CLASS_1, the eNodeB performs Doppler measurements on PUSCH DMRSs whose SINR is greater than or equal to –5 dB. Doppler
measurements of level 1 provide more UE speed information.
NOTE:
• The LBBPc board of a macro eNodeB does not support Doppler measurement level selection.
• Micro eNodeBs do not support Doppler measurement level selection.
3.4.3 MCS Selection During DL Scheduling
The following is the procedure for selecting an MCS for a UE during DL scheduling:
1. If the serving cell of the UE is not established on an LBBPc, the eNodeB determines whether to optimize UE-reported CQIs based on the settings of the
PUSCH_CQI_FALSE_DETECTION_SW and PUCCH_CQI_FALSE_DETECTION_SW options of the CellCqiAdjAlgo.CqiOptSwitch parameter.
• If the PUSCH_CQI_FALSE_DETECTION_SW option is selected, the eNodeB optimizes the CQIs reported on the PUSCH.
• If the PUCCH_CQI_FALSE_DETECTION_SW option is selected, the eNodeB optimizes the CQIs reported on the PUCCH.
• If both the PUSCH_CQI_FALSE_DETECTION_SW and PUCCH_CQI_FALSE_DETECTION_SW options are deselected, the eNodeB does not optimize the
reported CQIs.
2. The eNodeB selects the CQI type.
• If frequency diversity scheduling is used, the eNodeB considers the wideband CQI reported by the UE.
• If frequency selective scheduling is used, the eNodeB considers the subband CQIs reported by the UE.
3. The eNodeB determines whether to adjust the CQI reported by the UE based on the setting of the CqiAdjAlgoSwitch option of the CellAlgoSwitch.CqiAdjAlgoSwitch
parameter.
• If this switch is on, the eNodeB adjusts the CQI reported by the UE.
• If this switch is off, the eNodeB does not adjust the CQI reported by the UE.
4. The eNodeB maps the CQI reported by the UE to a transport block size index (ITBS) and then maps the ITBS to an IMCS, which identifies the MCS used for the UE.
For details about the mapping from ITBS to IMCS, see section 7.1.7 in 3GPP TS 36.213 V10.1.0 (2011-03).
The eNodeB temporarily uses a fixed MCS for a UE that is in a handover procedure or has just been handed over to the target cell.
A UE experiences poor channel quality during a handover or immediately after a handover. To ensure stable data transmissions in this situation, the eNodeB uses different
MCSs before and after the timer specified by the CellDlschAlgo.HoStaticMcsTimer parameter expires in the target cell.
• Before the timer expires, the eNodeB uses a fixed MCS for the UE.
• After the timer expires, the eNodeB dynamically selects an MCS for the UE.
If the transport block allocated to a UE is occupied by broadcast signals or synchronization signals, the coding rate increases when the TBS remains unchanged. The eNodeB
selects another MCS based on resource usage to maximize system throughput.
3.4.4 Determining the Number and Positions of RBs for DL Scheduling
3.4.4.1 Number and Positions of RBs for DL Scheduling
The amount of data to be scheduled in a TTI determines the number of RBs to be scheduled for UEs. Before determining the user data to be scheduled, a Huawei scheduler
estimates the Radio Link Control (RLC) and MAC header overheads. This enables the scheduler to allocate scheduling resources as precisely as possible, maximizing the
resource utilization efficiency.
The scheduler then obtains the amount of data to be scheduled and the IMCS, and estimates the number of RBs to schedule based on section 7.1.7 in 3GPP TS 36.213 V10.1.0
(2011-03). Based on the remaining power of the cell, the scheduler determines the number of RBs to schedule for the UE.
The scheduler selects the positions of the RBs based on the scheduling mode: frequency diversity scheduling or frequency selective scheduling.
3.4.4.2 PDSCH Efficiency Improvement
This section describes the basic feature LBFD-070106 PDSCH Efficiency Improvement.
The PDSCH efficiency improvement feature improves PDSCH resource utilization when idle RBs are available, thereby increasing downlink throughput.
3.4.4.2.1 MCS Selection with Prioritized RBs
The function of MCS selection with prioritized RBs reduces the MCS index and increases the number of RBs. When the air interface resources are sufficient, the function of MCS
selection with prioritized RBs reduces packet retransmissions and the scheduling delay of small-traffic service packets. This function increases user rates but decreases DL
spectral efficiency.
Policy for MCS Selection with Prioritized RBs
The policy for MCS selection with prioritized RBs applies to single-UE and multi-UE scenarios.
• In single-UE scenarios, the UE can be either of the following:
◾ A single online UE with limited capabilities.
◾ A single UE that has only one service to be scheduled and the percentage of TTIs with expected remaining RBs is less than the
CellDlschAlgo.RBPriMcsSelectRatioThd parameter value in a measurement period.
• In multi-UE scenarios,
MCS selection with prioritized RBs applies to the last UE to be scheduled in the current TTI, which can be either of the following:
◾ The last UE with limited capabilities to be scheduled in the current TTI.
◾ The last UE to be scheduled in the current TTI when the percentage of TTIs with expected remaining RBs is less than the
CellDlschAlgo.RBPriMcsSelectRatioThd parameter value in a measurement period.
The CellDlschAlgo.RBPriMcsSelectStrategy parameter determines the policy for MCS selection with prioritized RBs.
• When this parameter is set to SINGLEUSER_STRATEGY(Single User Strategy), MCS selection with prioritized RBs is performed only in single-UE scenarios.
• When this parameter is set to MULTIUSER_STRATEGY(Multiple User Strategy), MCS selection with prioritized RBs can be performed in either single-UE scenarios
or multi-UE scenarios.
• When this parameter is set to MULTIUSR_LOWMCSLIMIT_STRATEGY(Multiple User Lower MCS Limited Strategy), enhanced MCS selection with prioritized RBs
can be performed in either single-UE scenarios or multi-UE scenarios. Enhanced MCS selection with prioritized RBs allows the MCS index to be decreased by a
maximum of three. This processing mechanism reduces the air interface transmission delay of small-traffic services for more users, without increasing the neighboring
cell interference caused by an increasing number of RBs in the local cell.
Selection Ratio for MCS Selection with Prioritized RBs
The eNodeB obtains the ratio of TTIs during which the MCS index is reduced for scheduling to the total DL subframes in the last measurement period. If the ratio is less than a
threshold, MCS selection with prioritized RBs will be enabled in the next measurement period.
NOTE:
The MCS index can be reduced for scheduling of a service in a TTI only if the service is the only service to be scheduled for initial transmission in the TTI. The eNodeB queries
the TBS table based on the RBs that can be allocated to the associated UE and the traffic volume to be transmitted. If the obtained TBS index is less than the default TBS index,
the eNodeB marks the TTI a TTI with a reduced MCS index.
The CellDlschAlgo.RBPriMcsSelectRatioThd parameter is used to specify the threshold for enabling MCS selection with prioritized RBs.
• If this parameter is set to 0, the function of MCS selection with prioritized RBs is disabled when the data volume is insufficient.
• If this parameter is set to 100, the function of MCS selection with prioritized RBs is always enabled when the data volume is insufficient.
This parameter is used to control the interference to neighboring cells that is caused by the increasing RBs in the serving cell. When this parameter is set to a large value, the
delay for small-traffic services in the serving cell decreases significantly but the interference to neighboring cells is also high. When this parameter is set to a small value, the
delay for small-traffic services in the serving cell decreases insignificantly and the interference to neighboring cells is low.
3.4.4.2.2 MCS Selection for Transmission of Small-Amount Data
The TBS selected for the initial transmission may be greater than the amount of to-be-transmitted data. This occurs if the RBG allocation policy is adaptive allocation or to round
up the number of allocated RBGs to the nearest integer and the amount of downlink data to be initially transmitted is small. In this situation, the SmallPktMcsSelectAlgoSw
option of the CellAlgoSwitch.DlSchSwitch parameter can be selected to enable MCS selection for transmission of small-amount data. When this option is selected, the eNodeB
selects an MCS with a smaller index while maintaining the number of allocated RBGs, reducing the IBLER and the number of retransmissions and increasing user-perceived
downlink data rates.
3.4.4.2.3 Adaptive Power Allocation for Cell-Edge UEs
This function aims to increase the throughput of cell-edge UEs, for which the indexes of selected MCSs are less than 7, in light-load wide-coverage scenarios. This function is
controlled by the AdptCellEdgePwrAllocSw option of the CellAlgoSwitch.CellDlCoverEnhanceSwitch parameter. If the channels are not additive white Gaussian noise (AWGN)
channels and radio resources are insufficient, this function reallocates RBs and reselects an MCS for a cell-edge UE after RB allocation for initial transmission. This increases
the TBS for the UE without changing total power for it.
3.4.4.2.4 PDCCH and PDSCH Resource Balancing
When a cell serves a large number of UEs in RRC_CONNECTED mode with a high proportion of small-packet data transmission and PDCCH resources are insufficient, the
number of UEs scheduled per TTI in the downlink is limited and PDSCH resource utilization deteriorates.
In this situation, the function of PDCCH and PDSCH resource balancing is recommended. With this function, the scheduler randomly selects a UE with large-packet data
transmission and reserves PDCCH resources for the selected UE. When scheduling the last UE in the downlink, the scheduler allocates PDSCH resources to the selected UE,
improving DL RB utilization and throughput.
This function involves the following parameters:
• CellDlschAlgo.DataThdInPdcchPdschBal specifies the data volume threshold for determining UEs with large-packet data transmission.
• CellDlschAlgo.UeNumThdInPdcchPdschBal specifies the UE number threshold for triggering this function in a cell.
Note the following when using this function:
• In RAN sharing scenarios, the scheduler selects a UE only from those served by the high-priority operator in the current TTI if large-packet bearers are selected.
• In carrier aggregation (CA) scenarios, the scheduler considers only the data volume of the bearer on the current carrier if large-packet bearers are selected.
• In DRX scenarios, the scheduler considers only UEs in the active time if large-packet bearers are selected. If a UE enters sleep time, the eNodeB removes it from the
candidate list.
3.4.4.3 RB Blocking at Micro eNodeBs
A macro cell may experience interference from a micro cell (under a micro eNodeB) if the micro eNodeB is deployed near the center of the intra-frequency macro cell (under a
macro eNodeB). This causes macro cell signal quality to deteriorate and affect user experience. Meanwhile, the micro cell may also experience interference from the macro cell,
shrinking micro cell coverage.
If the RB blocking function is enabled, the micro eNodeB blocks multiple consecutive RBs in ascending order of frequency when allocating DL resources. The number of blocked
RBs is indicated by BlockRbNumber. These blocked RBs cannot be scheduled for DL initial transmissions and retransmissions (including semi-persistent scheduling). These
blocked RBs can be used only for transmission of common control information. With RB blocking enabled, user experience may degrade in the micro cell, but user experience of
UEs suffering interference improves in the macro cell.
The formula for calculating BlockRbNumber is as follows:
BlockRbNumber = ceiling (Total number of RBs available to the DL bandwidth of the micro cell x Predefined proportion of blocked RBs to total RBs in the micro cell)
NOTE:
Blocked RBs that are used to transmit common control information are still counted as blocked RBs.
An operator can use the CellDlschAlgo.MicRbBlockRatio parameter to specify whether to use RB blocking based on requirements.
Scenarios of Micro eNodeB deployment are described as follows:
• Micro eNodeB not deployed
If the micro eNodeB absorbs only a few users, it is recommended that this micro eNodeB not be deployed near the center of the macro cell.
• Micro eNodeB deployed with RB blocking disabled
If the micro eNodeB absorbs many users, this function is not recommended. The micro cell can share the load with the macro cell so user experience is not affected
even though the macro cell still experience interference from the micro cell.
• Micro eNodeB deployed with RB blocking enabled
If the micro eNodeB absorbs certain users, this function is recommended. RB blocking of the micro eNodeB must be used together with frequency selective scheduling
of the macro eNodeB. This influences the macro and micro eNodeBs in the following ways.
eNodeB Type
Influence
Macro eNodeB
DL throughput is improved for users who experience interference from the micro cell.
Micro eNodeB
eNodeB Type
Influence
• If users have high data traffic and good user experience, their DL throughput may decrease with the functions
enabled.
• If users have low data traffic and low RB resource usage, user experience is not affected with the functions
enabled.
3.5 Scheduling Termination for Abnormal UEs
This function prevents overuse of system resources by UEs in extremely weak coverage areas or with radio link failures. In addition, it reduces the RBLER in the system.
When AbnUeSchSwitch under the CellAlgoSwitch.CellSchStrategySwitch parameter is on, the DL scheduler in the eNodeB evaluates link faults based on the HARQ feedback
transmitted on the PUCCH of format 1a, 1b, or 1bcs in response to the downlink transmission. If the HARQ feedback indicates a consecutive number of DTXs that exceeds the
value of the CellDlschAlgo.DlSchAbnUeThd parameter, the DL scheduler determines that the UE has encountered a link fault. The scheduler then stops DL scheduling for initial
transmissions and retransmissions to the UE. If the UE is working in the carrier aggregation (CA) state, this function takes effect in the primary serving cell (PCell) of the UE but
does not take effect in any secondary serving cell (SCell).
The scheduler resumes DL scheduling for the UE if any of the following conditions is met:
• The PUSCH cyclic redundancy check (CRC) succeeds once.
• The CRC for aperiodic CQI reports succeeds once.
• The eNodeB receives four consecutive CQI reports with non-DTXs over the PUCCH.
3.6 Manual Blocking of PDSCH RBs
If certain PDSCH RBs experience strong interference from a definite external source or are unavailable because of spectrum planning, these RBs can be manually blocked so
that the eNodeB will not use them during DL scheduling.
The parameters in the CellRbReserve MO determine the RB blocking mode and the locations and quantity of these RBs. This RB blocking function does not take effect on
control channels or common channels.
This function reduces the number of available RBs and therefore affects broadcast of system information related to enhanced Machine Type Communication (eMTC) and
transmission of MTC physical downlink control channel (MPDCCH). As a result, eMTC fails to take effect.
4
DL Enhanced Scheduling
DL enhanced scheduling is an enhancement to DL basic scheduling. DL enhanced scheduling adjusts the selected MCSs based on DL channel quality and HARQ feedback. In
this way, DL enhanced scheduling increases the DL capacity and better satisfies the QoS requirements of DL services.
4.1 DL CQI Adjustment
This section describes the basic feature LBFD-00101501 CQI Adjustment.
4.1.1 Overview
The eNodeB selects an MCS for data transmission to a UE based on the UE-reported CQI. If the reported CQI does not reflect the channel quality at the time of scheduling, the
IBLER will not approach the target optimum value. Therefore, the eNodeB must check the difference between the reported channel quality and the actual channel quality based
on HARQ feedback and adjusts the CQI accordingly.
Accuracy of reported CQIs is affected by the following factors:
• CQI reporting is delayed n TTIs. If the delay is longer than the channel coherence time, the CQI reported by the UE is inconsistent with the channel quality at the time
of scheduling.
NOTE:
The value n is determined by the processing capability of the eNodeB, transmission delay over the radio interface, and the CQI reporting period.
• The CQI reporting period is far greater than the scheduling period, which leads to a difference between the CQI at the reporting time and the CQI at the scheduling
time.
4.1.2 Principles for DL CQI Adjustment
The CqiAdjAlgoSwitch option of the CellAlgoSwitch.CqiAdjAlgoSwitch parameter determines whether to enable the DL CQI adjustment algorithm.
• If this option is deselected, the DL CQI adjustment algorithm is disabled and the eNodeB selects MCSs based on the reported CQIs.
• If this option is selected, the DL CQI adjustment algorithm is enabled and the eNodeB selects MCSs based on the adjusted CQIs. The principles for the adjustment are
as follows:
◾ The IBLER increases if channel quality does not meet the requirements of the MCS selected by the scheduler. To lower the IBLER, the eNodeB decreases
the CQI value based on HARQ-NACKs. The decrease is the CQI adjustment value.
◾ The IBLER decreases if channel quality is higher than the minimum requirements of the MCS selected by the eNodeB. In this situation, the eNodeB increases
the CQI value based on HARQ-ACKs. The increase is the CQI adjustment value.
CQI adjustment enables the IBLER to approach the target value and increases DL throughput. The target IBLER determines the CQI adjustment value.
Figure 4-1 illustrates the DL CQI adjustment algorithm.
Figure 4-1 DL CQI adjustment algorithm
4.1.3 Target IBLER for DL CQI Adjustment
If the target IBLER is set too low, the eNodeB selects MCSs for DL data packets in a conservative manner, reducing transmission efficiency. If the target IBLER is set too high,
the eNodeB selects MCSs for DL data packets in an aggressive manner, increasing the number of DL retransmissions. The target IBLER value for CQI adjustment is 10% by
default. Increasing the target IBLER value improves spectral efficiency in certain scenarios (for example, at cell edge or small-packet services at non-edge locations). It typically
increases the capacity of heavily loaded cells.
eNodeBs support target IBLER adaptation. Target IBLER adaptation is enabled when operators set DlEnVarIblerTargetSwitch and DlVarIBLERtargetSwitch under the
CellAlgoSwitch.CqiAdjAlgoSwitch parameter on.
Figure 4-2 shows how target IBLER adaptation works under different switch settings.
Figure 4-2 Target IBLER adaptation under different switch settings
The target IBLER adaptation policies are as follows:
• The target IBLER changes based on channel quality fluctuations (indicated by CQIs).
◾ When the CellDlschAlgo.LowIblerTargetTbsIdxThld parameter is set to 255:
◾ If the channel quality fluctuates greatly, the target IBLER changes to 30%.
◾ If the channel quality fluctuates moderately, the target IBLER changes based on the UE location and the proportion of small-packet services.
◾ If the channel quality fluctuates slightly, the target IBLER changes to 5%.
◾ When the CellDlschAlgo.LowIblerTargetTbsIdxThld parameter is set to a value other than 255:
◾ If the channel quality fluctuates greatly:
◾ If the TBS index for the UE does not exceed the value of the CellDlschAlgo.HighIblerTargetTbsIdxThld parameter, the target IBLER
changes to 30%.
◾ Otherwise, the target IBLER changes to 10%.
◾ If the channel quality fluctuates slightly:
◾ If the TBS index for the UE is not less than the value of the CellDlschAlgo.LowIblerTargetTbsIdxThld parameter, the target IBLER changes
to 5%.
◾ Otherwise, the target IBLER changes to 10%.
◾ If the channel quality fluctuates moderately, the target IBLER changes based on the UE location and the proportion of small-packet services.
• The target IBLER changes to different values based on the UE location and proportion of small-packet services.
◾ For UEs running small-packet services at non-edge locations and cell edge UEs, the target IBLER increases to 30%.
◾ For UEs running non-small-packet services at non-edge locations, the target IBLER decreases to 10%.
NOTE:
Target IBLER adaptation does not apply to UEs running services with a QCI of 1.
4.1.4 Step for CQI Adjustment
The step by which the CQI value is increased or decreased each time is referred to as the CQI adjustment step. It depends on the initial step, variable step, and IBLER.
The initial step for CQI adjustment is specified by the CellDlschAlgo.CqiAdjInitialStep parameter. The initial step is used in the event of initial access and incoming handovers.
The variable step for CQI adjustment is determined by the StepVarySwitch option of the CellAlgoSwitch.CqiAdjAlgoSwitch parameter.
• When the StepVarySwitch option is deselected,
◾ If the IBLER is less than 5%, the CQI adjustment step is the initial step.
◾ If the IBLER is greater than or equal to 5%, the CQI adjustment step is fixed at 0.1.
• When the StepVarySwitch option is selected,
The CQI adjustment step is equal to the initial step at the beginning and then adjusted as follows:
◾ If the UE has sparse DL services (specifically, the probability that the UE is scheduled in the downlink within 100 ms is less than 10%),
The CQI adjustment step is constantly changing based on the difference between the current IBLER value and the target IBLER value. A larger difference
leads to a larger CQI adjustment step, which speeds up convergence to the target IBLER value.
◾ If the UE has dense DL services,
The CQI adjustment step is fixed at 0.1.
After the CQI adjustment step is restored to the initial step, CQI adjustment using the initial step cannot match channel state changes if the channel state changes drastically. To
address this mismatch, the eNodeB supports adaptive CQI adjustment. This function is controlled by the AdaptiveStepVarySwitch option of the
CellAlgoSwitch.CqiAdjAlgoSwitch parameter. When this option is selected, the eNodeB adjusts the CQI based on the HARQ feedback for downlink transmissions. This function
does not take effect on UEs with QCI-1 services.
• If the HARQ feedback for downlink transmissions is constantly ACKs, the eNodeB uses a large step to increase the CQI.
• If the HARQ feedback for downlink transmissions is constantly NACKs, the eNodeB uses a large step to decrease the CQI.
4.1.5 Period for DL CQI Adjustment
If the cell serves a massive number of online users, the CQI adjustment period is prolonged and the CQI adjustment algorithm may receive multiple HARQ feedback messages
in a CQI adjustment period.
The DlCqiAdjDeltaOptSwitch option of the CellAlgoSwitch.CqiAdjAlgoSwitch parameter specifies how to calculate the CQI adjustment value.
• When this option is deselected, the CQI adjustment algorithm considers all the received HARQ feedback messages in a CQI adjustment period as one feedback
message, based on which the CQI adjustment value is calculated. This calculation method causes slow CQI adjustment.
• When this option is selected, the CQI adjustment algorithm calculates the CQI adjustment value based on each HARQ feedback message received in a CQI
adjustment period. This calculation method causes fast CQI adjustment.
4.1.6 Initial Value of CQI Adjustment
An eNodeB calculates a CQI adjustment value for a UE based on HARQ feedback. It sets the initial value for the UE during initial access or during the incoming handover of the
UE. The larger the initial value is, the more aggressive the initial MCS is for the UE. The smaller the initial value is, the more conservative the initial MCS is for the UE. The initial
CQI adjustment value is specified by the CellCqiAdjAlgo.InitDeltaCqi parameter.
When the PreciseMcsAdaptSwitch option of the CellAlgoSwitch.CqiAdjAlgoSwitch parameter is selected, the eNodeB compensates for the CQI adjustment value for UEs.
The eNodeB applies compensation to the CQI adjustment value when the CellCqiAdjAlgo.InitDeltaCqi parameter is set to a value smaller than –1 and the UE reports
consecutive ACKs as feedback on DL HARQ. This function does not take effect on UEs with QCI-1 services.
4.2 DL Dynamic Scheduling
4.2.1 Overview
This section describes the basic feature LBFD-00101502 Dynamic Scheduling.
A scheduler uses the EPF scheduling algorithm to provide end-to-end QoS. This algorithm calculates the service scheduling priorities and ensures service rates.
4.2.2 GBR Service Priority Calculation
The GBR service priority calculation is dependent on the setting of the DlMbrCtrlSwitch option of the CellAlgoSwitch.DlSchSwitch parameter:
• When the DlMbrCtrlSwitch option is deselected,
The eNodeB preferentially guarantees the GBR of GBR services and maximizes spectral efficiency. The priority of a GBR service is calculated using the following
formula:
where
indicates the channel quality.
indicates the PDB of the GBR service.
• When the DlMbrCtrlSwitch option is selected,
The rates of GBR services range from the GBR to the MBR. In this situation, resource allocation does not distinguish between GBR and non-GBR services. Therefore,
the same formula is used to calculate the priorities of GBR and non-GBR services. For details, see 4.2.3 Non-GBR Service Priority Calculation.
The guaranteed rate and maximum rate of the services with QCI 1 are twice the GBR and MBR, respectively. This design aims to guarantee the QoS of low-rate small-packet
services.
NOTE:
When a cell serves multiple UEs and UE capabilities are limited (the maximum traffic volume received by UEs per TTI is lower than the maximum air interface capacity), there is
a possibility that the GBR or MBR of some services cannot be guaranteed while spare air interface resources are available in the serving cell, if the GBR or MBR is set to a large
value.
4.2.3 Non-GBR Service Priority Calculation
The priority of a non-GBR service is determined by the channel quality, historical transmission rate, QCI, and weight. The total rate of all non-GBR services of a UE cannot
exceed the per UE aggregate maximum bit rate (UE-AMBR). The priority of a non-GBR service is calculated using the following formula:
where
•
indicates the channel quality.
•
indicates the capacity adjustment factor for EPF.
◾ When the factor is set to 1, the scheduling priority selection is oriented towards resource fairness.
◾ When the factor is set to a value smaller than 1, the scheduling priority selection is oriented towards rate fairness.
◾ When the factor is set to a value greater than 1, the scheduling priority selection is oriented towards capacity.
•
indicates the historical transmission rate. Its calculation is dependent on the setting of the EpfEnhancedSwitch option of the CellAlgoSwitch.DlSchSwitch
parameter.
◾ When the EpfEnhancedSwitch option is deselected,
◾ When the EpfEnhancedSwitch option is selected,
indicates the average scheduled rate. The scheduler obtains
through filtering.
indicates the result of the transmitted data volume divided by the data transmission duration.
•
indicates the weight factor for the scheduling priority corresponding to the QCI of the non-GBR service. A larger value of the weight factor results in a higher
scheduling priority. For details about the weight factor, see QoS Management Feature Parameter Description.
•
indicates the delay for the non-GBR service packets to wait for scheduling on the eNodeB side. This delay factor can be used for calculating the scheduling
priority of non-GBR services only when the DL non-GBR packet bundling switch has been turned on. For details, see 4.3 DL Non-GBR Packet Bundling.
4.2.4 Resource Proportions for GBR and Non-GBR Services
When both GBR and non-GBR services are running on a network, schedulers preferentially guarantee GBR services, which have a higher priority than non-GBR services.
• The schedulers guarantee the GBR, packet error loss rate (PELR), and packet delay budget (PDB) of GBR services.
In addition, a GBR service can be scheduled multiple times. The scheduler checks the GBR service rate at regular intervals and increases or decreases the number of
times the GBR service is scheduled. This ensures a stable GBR service rate.
• The schedulers adopt a best-effort policy and guarantee the PELR but not the GBR for non-GBR services.
If the radio resources of a cell become insufficient and the proportion of GBR services is large, it is possible that non-GBR services are not scheduled and get starved.
To prevent non-GBR service starvation when a large number of GBR and non-GBR services are both running, operators can set the following parameters:
• CellDlschAlgo.NonGbrResourceRatio. This parameter specifies the proportion of resources reserved for non-GBR services.
NOTE:
This parameter is a cell-level parameter and applies only to DL non-GBR services. The prioritized bit rate (PBR) mechanism and scheduling request (SR) preferential
scheduling mechanism are used for UL non-GBR services to ensure that there are always resources to be allocated.
• QciPara.DlMinGbr. This parameter specifies the minimum DL guaranteed bit rate of non-GBR services with the specified QCI.
4.2.5 DL AMBR Control over Non-GBR Services
A per UE aggregate maximum bit rate (UE-AMBR) is defined in the EPC for the total rate of all DL non-GBR services on each UE. The eNodeB controls the total number of bits
sent to a UE within a period to be not greater than the UE-AMBR multiplied by the period. This period is specified by the CellDlschAlgo.AmbrCtrlTcycle parameter. A larger
value of this parameter results in a larger volume of data scheduled at a time within a period. This reduces the wait time during scheduling and therefore leads to higher userperceived data rates for UEs with low UE-AMBRs.
It is recommended that UE-AMBR control be enabled on the eNodeB and the CellDlschAlgo.AmbrCtrlTcycle parameter be set to its default value to ensure fairness between
UEs. Set the parameter to larger values if network resources are sufficient and an operator accepts less precise control or does not plan to use UE-AMBR control.
4.2.6 Delayed Scheduling of DL RLC Status Reports
This function works when PDCCH CCE insufficiency occurs at major incidents, for example, when the PRB usage, the number of RRC_CONNECTED UEs, and the PDCCH
CCE usage are greater than 80%, 200, and 70%, respectively. Certain RLC ACK status reports are not transmitted until DL packet bundling occurs. These reports were originally
to be separately transmitted and their wait time has not expired.
This function is controlled by the DlRLCStateReportSchDelaySw option of the CellAlgoSwitch.DlSchSwitch parameter. In the preceding scenario, this function increases userperceived DL data rates. The increases in the data rates have a strong positive correlation with the percentage of data amount of DL RLC ACK status reports. The higher the
percentage, the larger the increase.
4.3 DL Non-GBR Packet Bundling
This section describes the optional feature LOFD-001109 DL Non-GBR Packet Bundling.
The formula for calculating the scheduling priority of a non-GBR service is as follows:
In this formula,
indicates the delay for the non-GBR service packets to wait for scheduling on the eNodeB side. For details, see 4.2.3 Non-GBR Service Priority Calculation.
The NonGbrBundlingSwitch option of the CellAlgoSwitch.DlSchSwitch parameter determines whether to enable DL Non-GBR Packet Bundling.
• When this option is deselected, the delay factor is not considered in scheduling priority calculation for non-GBR services.
• When this option is selected, the delay factor is considered in the calculation.
The eNodeB bundles multiple DL data packets before sending them when using DL Non-GBR Packet Bundling. This feature increases control channel resource usage if control
channel congestion occurs, and helps optimize the delay performance of the non-GBR service packets.
NOTE:
The optimization on the overall transmission delay performance of non-GBR service packets indicates the improvement on the delay distribution of DL data packets waiting to be
scheduled, but does not necessarily indicate a decrease in the average scheduling delay for all DL data packets. When multiple data packets are bundled for transmission, the
scheduling delay for packets allowing large delay decreases, but that for packets allowing small delay may increase. Therefore, the average delay for all these packets may
either increase or decrease. If the DL scheduling delay decreases, the traffic volume in the DL TCP small-packet send window increases. If the DL scheduling delay increases,
the traffic volume in the window decreases.
4.4 DL RB Allocation
If the number of RBs required by the scheduled UE is not an integer number of RBGs, you can use the CellDlschAlgo.RbgAllocStrategy parameter to control the number of
RBGs allocated to the scheduled UE.
• When this parameter is set to ROUND_DOWN,
◾ If the number of required RBs is less than one RBG, a required number of RBs are allocated to the scheduled UE. (Resource allocation type 1 is used.)
◾ If the number of required RBs is greater than one RBG, the number of RBGs to be allocated is rounded down to the nearest integer.
In this situation, RBs are efficiently used, but the number of scheduling times also increases and the DL data rates decrease.
• When this parameter is set to ROUND_UP, the number of RBGs to be allocated is rounded up to the nearest integer, regardless of whether the number of required
RBs is greater or less than one RBG.
In this situation, a few RBs are wasted, but the number of scheduling times also decreases and the DL data rates increase.
• When this parameter is set to ADAPTIVE,
◾ If the number of required RBs is less than one RBG, a required number of RBs are allocated to the scheduled UE. (Resource allocation type 1 is used.)
◾ If the number of required RBs is greater than one RBG, the number of RBGs to be allocated is rounded up to the nearest integer.
Compared with round-up, this mode prevents RB waste when the number of required RBs is less than one RBG.
Services with QCI 1 (such as VoLTE services) receive a special treatment: If the CellDlschAlgo.RbgAllocStrategy parameter is set to ROUND_DOWN, the parameter
value ADAPTIVE takes effect.
4.5 DL Traffic-Model-based Scheduling
This section describes LOFD-110205 Traffic Model Based Performance Optimization.
With this feature, the eNodeB preferentially schedules the UEs running small-amount data services and experiencing good signal quality to reduce user wait time. This feature
increases the perceived data rates and improves user experience while basically maintaining cell capacity.
Specifically, in scenarios with a heavy traffic load (for example, the RB usage is greater than 60%), the user-perceived data rate increases by 5% to 20%. This feature works in
cells with a bandwidth of at least 5 MHz.
This feature is controlled by the DlPacketLenAwareSchSw option of the CellAlgoSwitch.DlSchSwitch parameter. This feature is enabled only when this option is selected.
5
UL Scheduling
5.1 UL Scheduling Procedure
The actions in the UL scheduling procedure are performed sequentially based on priorities. Figure 5-1 shows the priorities in the UL scheduling procedure in a TTI.
Figure 5-1 Priorities in the UL scheduling procedure
NOTE:
Micro base stations do not support UL CoMP.
When there is data to be scheduled and resources are available for scheduling, the UL scheduling procedure is the same as the DL scheduling procedure. For details, see 3.1 DL
Scheduling Procedure.
1. Allocates resources for message 3 (Msg3).
Scheduling for Msg3 is indicated in RARs and does not require messages on the physical downlink control channel (PDCCH). For details, see 5.4 UL Scheduling for
Initial Transmissions.
2. Performs UL semi-persistent scheduling.
For details, see VoLTE Feature Parameter Description.
3. Schedule UEs in the TTI bundling state.
For details, see VoLTE Feature Parameter Description.
4. Allocates resources for HARQ retransmissions.
For details, see 5.3 UL Scheduling for Retransmissions.
5. Allocates resources to UEs that have sent SRs.
For details, see 5.4 UL Scheduling for Initial Transmissions.
6. Allocates resources for UE's UL control information.
For details, see 5.4 UL Scheduling for Initial Transmissions.
7. Schedules UEs with unsatisfied UL GBR.
For details, see 6.1 UL QoS Management.
8. Schedules UEs running non-GBR services with UL bit rates lower than the UEs' UL Min-GBRs.
For details, see 6.1.1 Service Rate Control on the eNodeB.
9. Schedules UEs running non-GBR services with UL bit rates lower than the UEs' UL AMBRs.
For details, see 6.1 UL QoS Management.
10. Schedules CQI-only UEs.
For details, see 5.4.1.2 UL Scheduling for UEs with Aperiodic CQI Reporting.
11. Schedules UEs that have been paired for UL MU-MIMO.
For details, see MIMO Feature Parameter Description.
12. Selects UEs to be configured with UL CoMP from the ones that have been scheduled.
For details, see UL CoMP Feature Parameter Description.
5.2 UL Scheduling Triggering
The procedure for triggering UL scheduling is as follows:
1. Before transmitting data, a UE sends the eNodeB a scheduling request (SR) using the scheduling request indicator (SRI) on the PUCCH to request UL resources for
data transmission.
2. Upon receiving the SR, the eNodeB responds to the SR and schedules the UE. (This type of UE is referred to as an SR UE.)
3. The SR UE uses the UL resources allocated by the eNodeB to transmit MAC protocol data units (PDUs), including the buffer status report (BSR).
4. If the BSR received at the eNodeB indicates a data size greater than zero, the eNodeB continues scheduling the SR UE and data transmission on the SR UE
proceeds.
To guarantee the scheduling priority of voice services for voice and data combined services, set the CellUlSchAlgo.UlDelaySchStrategy parameter to
VOIP_AND_DATA_DELAYSCH. For details, see VoLTE Feature Parameter Description.
The UlEnhancedSrSchSwitch option of the CellAlgoSwitch.UlSchSwitch parameter specifies whether to enable UL SR-based scheduling optimization.
• When the UlEnhancedSrSchSwitch option is deselected,
◾ If the maximum number of retransmission attempts is reached but the SR UE still fails to transmit data, the BSR fails to be sent and scheduling fails to start on
the SR UE. In this situation, the eNodeB attempts to schedule the SR UE again and performs the attempt twice. This process is referred to as re-scheduling
for SR UEs.
◾ If the eNodeB falsely detects an SR from an SR UE in the dormant state of DRX mode, the eNodeB will schedule the SR UE three consecutive times and
associated data transmissions will all fail when the maximum number of retransmissions is reached. In this situation, the BLER increases.
• When the UlEnhancedSrSchSwitch option is selected,
The eNodeB determines whether to stop re-scheduling an SR UE based on the PUSCH DTX detection result.
◾ If the PUSCH DTX state is detected in initial transmission from an SR UE, the eNodeB stops re-scheduling the SR UE.
◾ If the PUSCH DTX state is not detected in initial transmission from an SR UE, the eNodeB continues re-scheduling the SR UE.
◾ Re-scheduling of SR UEs in DRX mode is performed only when the On Duration Timer is running. This reduces the impact of false SR detections in sleep
time on the BLER.
The amount of data to be scheduled in SR-based scheduling is determined by related parameters as follows:
• If the CellUlschAlgo.UlSrSchDataVolAdptOptUpThd parameter is set to a non-zero value, it takes effect only if the cell is not established on LBBPc and the eNodeB
determines the amount as follows:
◾ If the value of the CellUlschAlgo.UlSrSchDataVolAdptOptUpThd parameter is greater than the value of the CellUlschAlgo.UlSrSchDateLen parameter, the
amount is calculated based on the amount of data scheduled during the last SR-based scheduling and falls into the range of
[CellUlschAlgo.UlSrSchDateLen,CellUlschAlgo.UlSrSchDataVolAdptOptUpThd].
◾ If the value of the CellUlschAlgo.UlSrSchDataVolAdptOptUpThd parameter is less than or equal to the value of the CellUlschAlgo.UlSrSchDateLen
parameter, the eNodeB uses the CellUlschAlgo.UlSrSchDateLen parameter value as the amount.
• If the CellUlschAlgo.UlSrSchDataVolAdptOptUpThd parameter is set to 0, the amount is controlled by the SrSchDataAdptSw option of the
CellAlgoSwitch.UlSchSwitch parameter and the eNodeB determines the amount as follows:
◾ If the SrSchDataAdptSw option is deselected, the eNodeB uses the CellUlschAlgo.UlSrSchDateLen parameter value as the specific amount of data.
◾ If the SrSchDataAdptSw option is selected, the eNodeB uses the CellUlschAlgo.UlSrSchDateLen parameter value as the minimum amount of data. The
eNodeB adaptively determines the final amount of data based on the previous amount of data scheduled during the last SR-based scheduling. If the previous
amount of data is greater than 700 bits, the amount can be used to calculate the amount of data to be scheduled in the current SR-based scheduling. The
maximum amount of data to be scheduled in SR-based scheduling is always 16,550 bits.
5.3 UL Scheduling for Retransmissions
5.3.1 Overview
This section describes the basic feature LBFD-002006 UL Synchronous HARQ.
Synchronous HARQ is a basic feature for UL scheduling. An eNodeB sends HARQ feedback to the initial transmission four TTIs after delivering a UL grant for the initial
transmission to a UE and then determines whether the UE needs to perform a retransmission.
5.3.2 Retransmission Mode
Huawei eNodeBs support UL synchronous non-adaptive HARQ and synchronous adaptive HARQ.
UL Synchronous Non-Adaptive HARQ
In synchronous non-adaptive HARQ, the RB positions and MCS for retransmissions are identical to those for the initial transmission. If the RB positions conflict with the positions
of physical random access channel (PRACH) and PUCCH resources, the retransmission is suspended, affecting UL throughput.
UL Synchronous Adaptive HARQ
In synchronous adaptive HARQ, if data to be retransmitted is allocated resources that conflict with other UL resources, the eNodeB adaptively adjusts the number of RBs, their
positions, and the MCS for retransmission. In this way, UL resources are scheduled in a timely manner to reduce UL transmission delay and increase UL throughput.
Automatic Switching Between UL Synchronous Adaptive HARQ and Synchronous Non-Adaptive HARQ
Huawei eNodeBs also support automatic switching between the adaptive and non-adaptive modes. Operators can specify the retransmission mode by setting the
CellUlschAlgo.AdaptHarqSwitch parameter. The automatic switching between the two modes is used by default.
Figure 5-2 shows the principle of automatic switching between UL synchronous adaptive HARQ and synchronous non-adaptive HARQ.
Figure 5-2 Automatic switching between the retransmission modes for UL scheduling
As defined in 3GPP TS 36.213, the MCS for UL synchronous adaptive HARQ remains unchanged for initial transmissions and retransmissions. MCSs with indexes 29 to 31 are
used, corresponding to different redundancy versions.
5.3.3 Retransmission Upon Detection of PUSCH DTX
When the PuschDtxSwitch option of the CellAlgoSwitch.UlSchSwitch parameter is selected, the result of PUSCH data reception on the eNodeB can be ACK, NACK, or DTX.
• If the result is ACK, the transmission for the packet ends.
• If the result is NACK, the UE retransmits the packet.
• If the result is DTX, the scheduling policy for the HARQ process is determined by the CellUlSchAlgo.PuschDtxSchStrategy parameter.
◾ If this parameter is set to NEW_TX, retransmission of the packet is stopped and the eNodeB sends UL initial-transmission scheduling information to the UE
over the PDCCH.
◾ If this parameter is set to ADAPTIVE_RETX, the eNodeB uses an adaptive HARQ retransmission for the UE. That is, the eNodeB sends the same UL
scheduling information to the UE over the PDCCH as that in the initial transmission, including the indicated MCS and number of RBs. If DRX has been
activated, the adaptive HARQ retransmission is scheduled only when the On Duration Timer specified by the DrxParaGroup.onDurationTimer parameter is
running.
◾ If this parameter is set to EN_ADAPTIVE_RETX and DRX has not been activated, the scheduling policy is the same as that when the parameter is set to
ADAPTIVE_RETX. However, if DRX has been activated, the adaptive HARQ retransmission is scheduled only during the active time of the UE.
All the preceding policies reduce the number of invalid uplink retransmissions due to missing PDCCH detection by the UE.
NOTE:
When the LBBPc board is configured and the SRSCfg.SrsCfgInd parameter is set to BOOLEAN_FALSE(False), PUSCH DTX detection is not supported.
When the LBBPc board is configured and four or eight receive antennas are used, PUSCH DTX detection is not supported.
When the LBBPc board is configured, PUSCH DTX detection is not supported for UEs in the MU-MIMO state.
If SRSCfg.SrsCfgInd is set to BOOLEAN_FALSE(False) on the BTS3202E, PUSCH DTX detection is not supported.
5.3.4 Maximum Number of UL HARQ Retransmissions
The maximum number of UL HARQ retransmissions is specified by the CellUlschAlgo.UlHarqMaxTxNum parameter.
• If this parameter is set to a small value, HARQ retransmissions consume few radio resources but radio link reliability decreases.
• If this parameter is set to a large value, radio link reliability increases but HARQ retransmissions consume a lot of radio resources.
◾ When this parameter is set to 7,
Set both RlcPdcpParaGroup.EnodeBAmReorderingTimer and RlcPdcpParaGroup.EnodeBUmReorderingTimer to 50 ms or larger.
◾ When this parameter is set to 8,
Set both RlcPdcpParaGroup.EnodeBAmReorderingTimer and RlcPdcpParaGroup.EnodeBUmReorderingTimer to 60 ms or larger.
NOTE:
The value of the t-Reordering timer is 40 ms by default, whether the RLC entity works in acknowledged mode (AM) or unacknowledged mode (UM). If the maximum number of
retransmissions is set to 7 or 8, the t-Reordering timer with the default value cannot cover the whole retransmission period, which results in the following:
• In AM, the transmitter initiates invalid HARQ retransmissions and the receiver triggers repeated status reports, wasting resources.
• In UM, the transmitter initiates invalid HARQ retransmissions and discards a large number of packets.
5.3.5 Resource Allocation for HARQ Retransmissions
If consecutive demodulation failures occur in the HARQ retransmission process, the last two HARQ retransmissions can use a reduced code rate when the cell serves less than
150 RRC_CONNECTED UEs and idle RBs are available. The TBS in HARQ retransmissions is the same as the TBS in initial transmissions. Therefore, more RBs are allocated
for HARQ retransmissions, which can reduce UL throughput.
The UlLast2RetransSchOptSwitch option of the CellAlgoSwitch.UlSchSwitch parameter specifies whether UL HARQ retransmissions use a reduced code rate.
• When this option is selected, the (ULHARQMAXTXNUM-1)th and ULHARQMAXTXNUMth HARQ retransmissions use a reduced code rate to increase the gains of
combining in HARQ retransmissions and decrease the UL RBLER and service drop rate.
NOTE:
ULHARQMAXTXNUM indicates the maximum number of consecutive HARQ retransmissions and is specified by the CellUlschAlgo.UlHarqMaxTxNum parameter.
• When this option is deselected, HARQ retransmissions do not use a reduced code rate.
In adaptive HARQ retransmissions for voice services, the MCS selection policy for voice services is specified by the UlVoipRblerControlSwitch option of the
CellUlSchAlgo.UlEnhencedVoipSchSw parameter.
• When this option is selected, the scheduler selects MCSs with smaller indexes for voice services than for data services. As a result, the RBLER and packet loss rate of
voice services are lower than those of data services.
• When this option is deselected, the scheduler adopts the same policy to select the MCSs for voice and data services.
If the UlLast2RetransSchOptSwitch and UlVoipRblerControlSwitch options are both selected, the eNodeB increases the number of RBs for scheduling and reduces the code
rate for voice services in the last two HARQ retransmissions, and increases the number of RBs for scheduling in the event of conflicts between retransmissions and
measurement gaps.
5.4 UL Scheduling for Initial Transmissions
UL dynamic scheduling for initial transmission performs the following operations:
• Selects UEs for UL scheduling.
• Obtains scheduling resources.
• Determines the MCSs to be used.
• Determines the number of RBs to be allocated and their positions.
5.4.1 Selecting UEs for UL Scheduling
Huawei eNodeB supports four scheduling policies (Max C/I, RR, PF, and EPF) for UL scheduling. These policies are identical to those for DL scheduling. For details, see 4.2 DL
Dynamic Scheduling. The only difference is the input for indicating the channel quality, which is SINR for the UL and CQI for the DL.
QoS guarantee provided by EPF also depends on the LBFD-070102 MBR>GBR Configuration feature. For details, see 6.1 UL QoS Management.
The following functions can be used in the policies used in selecting UEs for UL scheduling:
• 5.4.1.1 PDCCH and PUSCH Resource Balancing
• 5.4.1.2 UL Scheduling for UEs with Aperiodic CQI Reporting
• 5.4.1.3 Proactive Scheduling for Uplink Signaling
• 5.4.1.4 Scheduling Termination for Abnormal UEs
5.4.1.1 PDCCH and PUSCH Resource Balancing
When a cell serves a large number of UEs in RRC_CONNECTED mode with a high proportion of cell edge users or users having small-packet data transmission, the number of
UEs for UL scheduling per TTI is limited and UL throughput/PUSCH resource utilization is reduced if PDCCH resources are insufficient.
In this situation, PDCCH and PUSCH resource balancing is recommended. This function works as follows:
The scheduler randomly selects a UE with large-packet data transmission at the cell center and reserves PDCCH resources for the UE. The scheduler ensures that the selected
UE can be scheduled, improving uplink RB utilization and throughput.
This function involves the following parameters:
• CellUlschAlgo.DataThdInPdcchPuschBal
This parameter specifies the data volume threshold that defines a UE with large-packet data transmission.
• CellUlschAlgo.UeNumThdInPdcchPuschBal
This parameter specifies the threshold, which is the number of UEs served by a cell, for enabling this function.
Note the following when using this function in various scenarios:
• In RAN sharing scenarios, this function is not recommended because there is a probability that the operator-specific resource occupation ratio is not strictly applied due
to random selection of the UE with large-packet data transmission.
• It is good practice to select the SchedulerCtrlPowerSwitch option of the CellAlgoSwitch.UlSchSwitch parameter when using this function, thereby preventing UEs
with large-packet data transmission from occupying too many resources.
5.4.1.2 UL Scheduling for UEs with Aperiodic CQI Reporting
The eNodeB schedules UEs with aperiodic CQI reporting. For details about the triggering of aperiodic CQI reporting, see Channel State Management Feature Parameter Description.
Specifically, if the UE has data to be scheduled for uplink initial transmission when reporting aperiodic CQIs, the eNodeB schedules the UE in associated aperiodic CQI mode; if
the UE has no data to be scheduled for uplink initial transmission when reporting aperiodic CQIs, the eNodeB schedules the UE in CQI-only mode.
The CQI-only mode increases UL overhead and UL interference. To minimize these adverse impacts, set the CellUlschAlgo.AperiodicCsiUlTxMode parameter to specify the UL
transmission mode of aperiodic CQIs.
• When this parameter is set to CsiOnly,
For a UE that has only DL aperiodic CQIs to be transmitted, the eNodeB immediately schedules the UE on the PUSCH for the transmission of CQIs indicating DL
channel quality.
• When this parameter is set to CsiWiUlService,
For a UE that has only DL aperiodic CQIs to be transmitted, the eNodeB does not allow only CQIs to be transmitted on the PUSCH but allows CQIs and UL service
data to be simultaneously scheduled and transmitted on the PUSCH within a specified time after aperiodic CQI reporting is triggered. This scheme reduces the number
of times of aperiodic CQI reporting in CQI-only mode and decreases UL interference. However, reporting of aperiodic CQIs together with UL service data is not so
prompt as when the CellUlschAlgo.AperiodicCsiUlTxMode parameter is set to CsiOnly, and therefore the DL IBLER slightly increases if UL data services of the UE are
sparse.
5.4.1.3 Proactive Scheduling for Uplink Signaling
After an eNodeB sends a UE an RRC configuration message that requires a response message from the UE, the UE cannot send a response message if the eNodeB fails to
receive the scheduling request from the UE. Consequently, the RRC configuration fails and an RRC connection reestablishment is triggered. In a worse situation, issues such as
E-RAB setup failure and service drop may occur.
eNodeBs prevent RRC configuration failures, caused by UEs' failure to respond, by allowing proactive scheduling for uplink signaling. The proactive scheduling function is
controlled by the SrbProbeSchSwitch(SrbProbeSchSwitch) option of the CellAlgoSwitch.UlSchExtSwitch parameter. When the option is selected, the eNodeB proactively
schedules the UE if the eNodeB does not receive a scheduling request from the UE within 300 ms of delivering the RRC configuration message. The proactive scheduling
ensures that the UE can transmit a response message to the eNodeB, improving network stability.
5.4.1.4 Scheduling Termination for Abnormal UEs
This function prevents overuse of system resources by UEs in weak coverage areas or without a radio connection to the E-UTRAN. In addition, this function reduces the residual
BLER in the system.
When the AbnUeSchSwitch option of the CellAlgoSwitch.CellSchStrategySwitch parameter is selected, the UL scheduler determines whether the UE link is abnormal based on
UL demodulation performance.
Specifically, if the number of successive times that the UL CRC for a UE fails exceeds the value of CellUlschAlgo.UlSchAbnUeThd, the UL scheduler determines that
demodulation performance is poor and the UE link is abnormal. In this situation, the eNodeB clears the data buffered for the UE to stop UL scheduling for the UE.
The eNodeB attempts to schedule the UE if it receives two consecutive SRs from the UE. If the CRC for the UE succeeds, the UL scheduler clears the abnormal state of the UE
link and the UE can be scheduled normally. If the CRC fails, the UE link continues to be in the abnormal state.
5.4.2 UL Scheduling Resource Acquisition
One of the basic functions of UL scheduling is to obtain physical uplink shared channel (PUSCH) resources.
5.4.2.1 PUSCH Resources
The PUSCH, PUCCH, and PRACH share the UL bandwidth resources. Available PUSCH resources vary with scenarios:
• If a cell serves more than one UE, the amount of available PUSCH resources is equal to the amount of UL resources across the entire channel bandwidth minus the
amount of resources occupied by the PUCCH and PRACH.
• If the PuschUsePucchRbSwitch option of the CellAlgoSwitch.UlSchSwitch parameter is selected and the cell serves only one UE, the amount of available PUSCH
resources is equal to the amount of UL resources across the entire channel bandwidth minus the amount of resources occupied by the PRACH. That is, the PUSCH is
allowed to occupy the PUCCH RBs.
The following are additional descriptions of UL bandwidth sharing among the PUSCH, PUCCH, and PRACH:
• The PUCCH occupies RBs at two ends of a cell bandwidth, and the number of RBs is dependent on the amount of resources used to carry information on the PUCCH.
The information includes HARQ feedback to DL dynamic scheduling, CQIs indicating DL channel quality, the number of UEs in semi-persistent scheduling mode, and
scheduling request indicators (SRIs). For details about the PUCCH, see Physical Channel Resource Management Feature Parameter Description.
• The PRACH periodically occupies six RBs in the uplink at an interval specified by a related parameter.
• According to section 5.3.3 in 3GPP TS 36.211 V10.0.0 (2011-03), continuous UL resources are allocated and the number of allocated RBs is
,
, and
, where
are not minus integers.
• In PUSCH resource allocation, the eNodeB dynamically determines whether to perform frequency selective scheduling or frequency non-selective scheduling on UEs
based on the number of UEs in a cell, RB usage, and CPU usage.
5.4.2.2 Frequency Selective Scheduling
Principles
Frequency selective scheduling is performed based on channel quality or interference. Figure 5-3 shows how an eNodeB determines to perform channel-quality- or interferencebased frequency selective scheduling.
Figure 5-3 Selection of the frequency selective scheduling type
• Channel-quality-based frequency selective scheduling
The eNodeB selects the most suitable frequency resources for each UE based on the channel quality differences between subbands. Figure 5-4 shows how resources
are allocated in UL frequency selective scheduling. The eNodeB determines the sliding window size based on the number of RBs required by each UE and selects
available resources that are expected to produce the largest gains.
Figure 5-4 Resource allocation in UL frequency selective scheduling
After the sliding window size is set, the scheduler checks the setting of UlFssWindSearchDirRandSw under the CellAlgoSwitch.UlSchExtSwitch parameter to
determine the resource search direction for the sliding window.
◾ If the UlFssWindSearchDirRandSw option is deselected, the direction used starts from the low- to the high-frequency end of the spectrum.
◾ If the UlFssWindSearchDirRandSw option is selected, the direction varies as follows:
◾ The direction used starts from the high- to the low-frequency end for cells whose PCI modulo 2 is 0.
◾ The direction used starts from the low- to the high-frequency end for cells whose PCI modulo 2 is 1.
• Interference-based frequency selective scheduling
Interference-based frequency selective scheduling considers the interference differences between subbands. The eNodeB determines the sliding window size based
on the number of RBs required by each UE and selects available resources that experience minimum interference. Only the UEs whose UL SINR is lower than the
CellUlSchAlgo.UlInBasedFssSinrThld parameter value are selected for interference-based frequency selective scheduling.
NOTE:
Operators are advised to retain the default value for the CellUlSchAlgo.UlInBasedFssSinrThld parameter. Modifications to the parameter value are not recommended.
To improve the UL performance of low-speed UEs in cells established on BBPs other than LBBPc, select the UlEnhancedDopplerSwitch option of the
CellAlgoSwitch.UlSchSwitch parameter for these cells. When the UlEnhancedDopplerSwitch option is selected, the eNodeB determines whether UEs are moving at low
speeds based on Doppler measurements. For UEs moving at low speeds, the eNodeB uses comparatively more suitable SINR filtering coefficients and MCSs in frequency
selective scheduling, increasing spectral efficiency and throughput of the UEs.
NOTE:
Channel quality or interference measurement, which frequency selective scheduling is dependent on, is based on DMRS or SRS symbols. When data symbols and DMRS or
SRS symbols differ greatly in the interference they experience (typically inter-system interference), frequency selective scheduling may fail to select the optimal RBs, affecting
network performance.
Start and Stop
Although frequency selective scheduling can track channel quality fluctuations or interference to produce gains, it also produces frequency band fragments, causing insufficient
RB utilization. The implementation of frequency selective scheduling is complex and involves high overheads. To reduce the negative impacts, the eNodeB checks the number of
synchronized UEs in its served cell within each TTI and starts or stops UL frequency selective scheduling accordingly.
Figure 5-5 shows how a macro eNodeB determines whether to use frequency selective scheduling.
Figure 5-5 Procedure for determining whether to use frequency selective scheduling
The following table provides additional information about the marked steps in the procedure.
Mark
Additional Information
a
For details about how a specific type of frequency selective scheduling is determined, see Figure 5-3. The eNodeB implements
frequency selective scheduling as described in Principles.
b
If the number of UEs for which frequency selective scheduling is used has exceeded a specified threshold, resource allocation based
on interference randomization is used. For details about interference randomization, see ICIC Feature Parameter Description.
c
If the number of UEs for which frequency selective scheduling is used has exceeded a specified threshold, non-frequency-selective
scheduling is used. RB resources are sequentially allocated to UEs from the high-frequency end to the low-frequency end.
A micro eNodeB determines whether to use UL frequency selective scheduling as follows:
• If the UlEnhancedFssSwitch option of the CellAlgoSwitch.UlSchSwitch parameter is deselected:
◾ The micro eNodeB disables UL frequency selective scheduling in the cells that each serve more than 15 synchronized UEs.
The micro eNodeB then performs interference-randomization-based scheduling or non-frequency-selective scheduling as a macro eNodeB does at points "b"
and "c" indicated in Figure 5-5.
◾ The micro eNodeB performs UL frequency selective scheduling as described in Principles in the cells that each serve less than 15 synchronized UEs.
• If the UlEnhancedFssSwitch option of the CellAlgoSwitch.UlSchSwitch parameter is selected, the micro eNodeB performs UL frequency selective scheduling as
described in Principles, regardless of the number of synchronized UEs in a cell.
5.4.2.3 Determining the Number of RBs for UL Scheduling
The UL scheduler determines the number of RBs required by a UE in the current TTI based on:
• Buffer status reported by the UE
• Token bucket status for QoS assurance
• Power headroom status
• Setting of CellUlschAlgo.MaxUlSchRbNum
• Maximum number of RBs supported by a single carrier
The eNodeB determines the positions of RBs to be allocated based on factors such as the UL SINR measured by the eNodeB and system resource usage.
5.4.2.3.1 Scheduler-controlled Power
The power control module of an eNodeB sets a target value for convergence of the power spectrum density (PSD) for each UE to maintain the maximum number of allocatable
RBs under the PSD. This maximum number of allocatable RBs is called the number of power-limited RBs. The SchedulerCtrlPowerSwitch option of the
CellAlgoSwitch.UlSchSwitch parameter determines whether the number of RBs allocated by the scheduler can be greater than the number of power-limited RBs.
• If the SchedulerCtrlPowerSwitch option is deselected, the number of RBs allocated by the scheduler cannot be greater than the number of power-limited RBs. The
PSD maintains at the level limited by power control.
• If the SchedulerCtrlPowerSwitch option is selected, the number of RBs allocated by the scheduler can be greater than the number of power-limited RBs. In this
situation:
◾ If the number of RBs allocated to a UE exceeds the number of power-limited RBs, the PSD for the UE's data transmission is lower than the power-controllimited PSD because of the maximum UE transmit power restriction. The low PSD results in a decreased SINR. However, the scheduler maintains the actual
SINR to a level that will not decrease the UE throughput.
◾ If the UL_RBCALC_OPT_SWITCH option of the eNodeBAlgoSwitch.UlResManageOptSw parameter is deselected, the scheduler maintains the
SINR at a level not lower than –1 dB whenever possible.
◾ If the UL_RBCALC_OPT_SWITCH option of the eNodeBAlgoSwitch.UlResManageOptSw parameter is selected, the scheduler optimizes RB
quantity calculation in case of power insufficiency. The calculation is based on channel quality fluctuation, and the lower limit of the SINR varies with
channel quality. The variable lower limit of the SNIR helps increase UL UE throughput.
◾ A UE's PSD varies rapidly with time, causing the SINR to change rapidly too. As a result, the number of RBs calculated based on the buffer status is
inaccurate for MBB services. Some RBs are wasted, affecting the system capacity if the uplink load is heavy.
To prevent inaccurate RB number calculation, select the UlDataFitterRbCalcSwitch option of the CellAlgoSwitch.UlSchExtSwitch parameter. When this
option is selected, the scheduler determines an accurate number of to-be-allocated RBs based on the UE buffer status, channel quality for the UE, normalized
UE power margin, and receiver demodulation performance. This calculation method meets the transmission data volume requirement, saves RBs, and
increases the system capacity.
◾ The scheduler selects four to-be-scheduled UEs of the highest priority and estimates the required amount of resources to ensure that at least four UEs can
fully exploit the available PUSCH RBs and thereby to increase the throughput of multiple UEs.
When the UlSchCtrlPwrUserSetOptSw option of the CellAlgoSwitch.UlSchExtSwitch parameter is selected, the selection range includes only the UEs that
either have no resources preallocated to them or have been preallocated resources only for voice services. The scheduler does not select UEs that have
been preallocated resources for non-voice services, preventing such UEs from preempting resources of higher-priority UEs.
5.4.2.3.2 Optimization of UL RLC Segment Reduction
The RLC header and MAC header are added to the data packets transmitted at the RLC layer on the UE side. When estimating the data volume to be scheduled for a UE, the
scheduler determines the overheads of the RLC header and MAC header based on the value of the CellUlschAlgo.HeadOverheadForUlSch parameter.
With the same MCS, the spectral efficiency achieved when a small number of RBs are allocated is lower than that achieved when a large number of RBs are allocated. When the
UlSmallRBSpectralEffOptSw option of the CellAlgoSwitch.UlSchSwitch parameter is selected, the scheduler changes the small number of RBs to be allocated, ensuring that
the TBS can meet the requirements of data transmission as much as possible.
The preceding two measures reduce the number of UL RLC segments, lowering the service transmission delay and PDCCH overheads.
5.4.3 Determining MCSs for UL Scheduling
5.4.3.1 Overview
The SINR of a UE reflects the uplink channel quality of the UE. eNodeBs select MCSs for UL scheduling based on SINRs. The process of determining MCSs for UL scheduling
consists of three parts: SINR adjustment, initial MCS selection, and MCS adjustment, as shown in Figure 5-6.
Figure 5-6 Process of determining MCSs for UL scheduling
5.4.3.2 SINR Adjustment
The SINR at the measurement time changes significantly compared with that at the scheduling time for a moving UE. This is due to the impact of channel fading on a moving
UE's signals. If the SINR cannot indicate the channel quality at the scheduling time, the IBLER does not approach the target IBLER. Therefore, an eNodeB needs to determine
the deviation of the measured SINR from the actual channel quality based on HARQ-ACKs and HARQ-NACKs to uplink data and adjusts the SINR accordingly.
SINR adjustment is enabled when the SinrAdjustSwitch option of the CellAlgoSwitch.UlSchSwitch parameter is selected. The CellUlschAlgo.SinrAdjustTargetIbler parameter
specifies the target IBLER.
SINR adjustment is similar to DL CQI adjustment. For details, see 4.1 DL CQI Adjustment.
5.4.3.2.1 Target IBLER Adaptation
On live networks, the requirements for IBLER vary with scenarios and UE locations. Therefore, target IBLER adaptation is required. The UlIblerAdjustSwitch option of the
CellAlgoSwitch.UlSchSwitch parameter determines whether to enable UL target IBLER adaptation.
• When the UlIblerAdjustSwitch option is deselected, UL target IBLER adaptation is disabled.
The UL target IBLER is specified by the CellUlschAlgo.SinrAdjustTargetIbler parameter. The default value is 10%.
• When the UlIblerAdjustSwitch option is selected, the UL target IBLER adapts according to the rules listed in Table 5-1.
Table 5-1 Target IBLER adaptation rules
If...
Then...
If...
Then...
The SinrFlunIBlerAdaptSwitch option of the
CellUlschAlgo.UlTargetIBlerAdaptType parameter is selected
The target IBLER value is 1%, 5%, 10%, or 30% adaptively, depending on the
UE's distance to the eNodeB and the channel quality fluctuation, which is
reflected by the SINR of the UE.
• If the SINR fluctuation is significant or the UE is far away from the
eNodeB, a large target IBLER value will be used.
• If the UE is close to the eNodeB and the SINR is stable, a small target
IBLER value will be used.
The SinrJumpIBlerAdaptSwitch option of the
CellUlschAlgo.UlTargetIBlerAdaptType parameter is selected
In the event of a sudden and transient SINR change (for 1 to 3 TTIs), the target
IBLER value is:
• 100% if the SINR change is greater than an upper threshold
• 50% if the SINR change is greater than a lower threshold but less than
the upper threshold
The CellUlschAlgo.UlIBlerAdaptBigTrafficSw parameter is set to ON
If UL large-packet data transmission lasts for more than 1s on only one UE in the
cell, the target IBLER adaptation function takes effect only for this UE.
NOTE:
UL target IBLER adaptation does not take effect for UEs running services with QCI 1.
5.4.3.2.2 PAMC-based SINR Adjustment
PAMC uses AMC to maximize UL perceived throughput. It is controlled by the UlPAMCSwitch(UlPAMCSwitch) option of the CellAlgoSwitch.UlSchExtSwitch parameter. This
function introduces a cell-level SINR adjustment value, based on which each UE that has just accessed a network can now obtain a more accurate initial UE-level SINR
adjustment value for subsequent initial MCS selection. These UEs used to use a fixed initial SINR adjustment value, and therefore the adjusted SINR could not promptly
approach the expected value when the UEs are scheduled infrequently because of low traffic volume. This slow change in the adjusted SINR causes failure to accurately
indicate UL channel quality, affecting UL UE throughput. Figure 5-7 shows the process of PAMC.
Figure 5-7 Process of PAMC
NOTE:
• PAMC does not work with LBBPc boards.
• PAMC cannot be used with UEs that use any of the following: TTI bundling, VoLTE, single-user MIMO (SU-MIMO), and push to talk (PTT).
• PAMC does not take effect in cells whose Cell.UlCyclicPrefix is set to EXTENDED_CP(Extended).
5.4.3.2.3 SINR Adjustment Upon Detection of PUSCH DTX
When the PuschDtxSwitch option of the CellAlgoSwitch.UlSchSwitch parameter is selected, the result of PUSCH data reception on the eNodeB can be ACK, NACK, or DTX. If
the result is DTX, the eNodeB does not perform UL SINR adjustment.
NOTE:
When LBBPc boards are used, the implementation of PUSCH DTX has restrictions. For details, see 5.3.3 Retransmission Upon Detection of PUSCH DTX.
5.4.3.2.4 SRI Detection
There is a low probability that an eNodeB and a UE will stay in different DRX states because of false SRI detection when there is no UL data being transmitted. The BLER
increases both in the UL and DL. When there is UL data transmission, the BLER is not affected. To minimize the probability of false SRI detection, operators are advised to set
the CellUlschAlgo.SriFalseDetThdSwitch parameter to ON.
The probability of false SRI detection, which may rise because of inaccurate measurements of interference and noise on the PUCCH, can also be lowered by selecting the
SriDetectEnhanceSW(SriDetectEnhanceSW) option of the CellPucchAlgo.SriAlgoSwitch parameter. Note that LBBPc boards do not support this function.
5.4.3.3 Initial MCS Selection
On each scheduling occasion, an MCS is selected initially and then adjusted. The selection is based on the measured SINR of the UE-occupied bandwidth and the eNodeB
demodulation performance.
If the UlPAMCSwitch option of the CellAlgoSwitch.UlSchExtSwitch parameter is selected, initial MCS selection considers not only the adjusted SINR, but also the number of
allocated PRBs and SINR fluctuation. This improves the MCS selection accuracy. Figure 5-8 shows the process of PAMC.
Figure 5-8 Process of PAMC
NOTE:
For UEs that have accessed a cell before PAMC is enabled in this cell, PAMC take effects on initial MCS selection for these UEs only after they re-access the cell.
To ensure the initial access performance, Huawei eNodeBs use a fixed small-index MCS for Msg3 transmission during UE access.
5.4.3.4 MCS Adjustment
After the initial MCS selection, the eNodeB can adjust the MCS based on the cell-specific SRS subframe configuration, UL control information on the PUSCH, and UE
capabilities, as shown in Figure 5-6. The adjustment procedure is as follows:
1. If cell-specific SRS or UL control information needs to be transmitted when RBs are scheduled for UL data transmission of a UE, the eNodeB needs to adjust the
MCS.
The symbols in which cell-specific SRS is transmitted are unavailable for PUSCH transmission and the UL control information transmission on the PUSCH reduces
the resources for data transmission, resulting in a higher PUSCH coding rate and accordingly a higher IBLER for initial data transmission. The MCS must be adjusted
accordingly to ensure that the scheduled data is correctly demodulated.
UL control information transmitted on the PUSCH includes ACKs, RIs, and CQIs. An MCS for UL control information is selected based on the result of the MCS used
for data transmission minus an index offset. A higher index offset indicates a higher transmission reliability for UL control information, but more resources are used by
the UL control information.
If the UL control information has a high bit error rate (BER) in adverse radio conditions, higher index offsets can be specified as follows:
• If the CellUciOnPuschPara.CellUciOnPuschParaValid parameter is set to TRUE, the index offsets for ACKs, RIs, and CQIs are specified by the cell-level
parameters CellUciOnPuschPara.DeltaOffsetAckIndex, CellUciOnPuschPara.DeltaOffsetRiIndex, and CellUciOnPuschPara.DeltaOffsetCqiIndex,
respectively.
• If the CellUciOnPuschPara.CellUciOnPuschParaValid parameter is set to FALSE, the index offsets for ACKs, RIs, and CQIs are specified by the eNodeBlevel parameters PuschParam.DeltaOffsetAckIndex, PuschParam.DeltaOffsetRiIndex, and PuschParam.DeltaOffsetCqiIndex, respectively.
NOTE:
These eNodeB-level parameters will be removed in later versions. You are advised to use the cell-level parameters for more flexible MCS adjustment.
2. UE capabilities must also be considered because the highest-order MCS supported may vary for different UEs.
5.5 UL Multi-Cluster
The UL Multi-Cluster function is introduced to address the low UL PRB resource efficiency when there are multiple non-contiguous PRB segments as a result of multi-UE
scheduling but these segments cannot be allocated to a single UE. This allocation failure is due to the previous restriction that the UL PRBs allocated to a single UE must be
contiguous.
UL Multi-Cluster has been introduced to 3GPP TS 36.213 since Release 10. This function is enabled when the UlMultiClusterSwitch option of the
CellAlgoSwitch.UlSchExtSwitch parameter is selected. With this function, the UL scheduler can allocate a maximum of two non-contiguous PRB clusters to a single UE. Each
cluster consists of an integer multiple of RBGs that are contiguous. This type of resource allocation takes effect when all the allowing conditions are met:
• The UE is capable of UL Multi-Cluster.
• The maximum number of contiguous idle PRBs in the UL band does not meet the UE requirements.
• There is sufficient power headroom at the UE. This requirement is set to prevent the impact of maximum power reduction (MPR) on the UE transmit power.
The UL Multi-Cluster function fully utilizes UL frequency spectrum fragments to increase UL PRB usage and therefore the UL peak throughput of UEs. This function is
recommended when there are UL frequency spectrum fragments, for example, in the case of PUCCH Flexible Configuration and manual blocking of certain PRBs. It is not
recommended when UL interference is distributed in an extremely unbalanced manner and there are large UL interference differences between separate idle PRB segments.
NOTE:
• A UE is considered to be capable of UL Multi-Cluster if both the multiClusterPUSCH-WithinCC-r10 and nonContiguousUL-RA-WithinCC-Info-r10 IEs are "supported" in
the UE capability message transmitted during initial access.
• Only macro and LampSite eNodeBs equipped with UBBPe boards support the UL Multi-Cluster function.
5.6 Manual Blocking of PUSCH RBs
If certain PUSCH RBs experience strong interference from a definite external source or are unavailable because of spectrum planning, these RBs can be manually blocked so
that the eNodeB will not use them during UL scheduling.
The parameters in the CellRbReserve MO determine the RB blocking mode and the locations and quantity of these RBs. This RB blocking function does not take effect on
control channels or common channels. It is recommended that the blocked PUSCH RBs do not overlap PUCCH or PRACH RBs.
If the CellRbReserve.RbRsvMode parameter is set to RB_MASKING_WITH_SRS(RB_MASKING_WITH_SRS), this RB blocking function is incompatible with UL frequency
hopping. In addition, this function causes a decrease in the amount of available SRS resources, affecting UL link adaptation and frequency-selective scheduling performance.
This function does not work with eMTC or UL coordinated resource allocation (CRA).
6
UL Enhanced Scheduling
As an enhancement to UL basic scheduling, UL enhanced scheduling selects a high-order MCS when the UL channel quality is high to increase the UL capacity, transmits the
same data block over consecutive N subframes to increase the UL coverage and satisfy the QoS requirements for UL services.
6.1 UL QoS Management
A Huawei scheduler meets the end-to-end QoS requirements. Unlike DL QoS, UL QoS is ensured by using related parameters sent from the eNodeB to UEs. The eNodeB can
obtain accurate information about the data volumes of DL services and perform DL scheduling based on the data volumes and service priorities. However, the eNodeB cannot
obtain accurate information about the data volumes of UL services. Therefore, the eNodeB performs UL scheduling based on the scheduling priority, data volumes, and service
priorities of each UE. Because of this scheduling difference, the UL QoS requirements are differentiated for different services of each UE.
6.1.1 Service Rate Control on the eNodeB
This section describes the following features:
• LBFD-00101502 Dynamic Scheduling
• LBFD-070102 MBR>GBR Configuration
There are two types of service bearers:
• GBR bearers
◾ The UL scheduler preferentially guarantees bit rates for GBR services.
◾ With the bit rates of GBR services guaranteed, the UL scheduler schedules GBR and non-GBR services with the same priority and ensures that the bit rate of
each GBR service does not exceed the relevant MBR.
• Non-GBR bearers
◾ The UL scheduler in the eNodeB applies a best-effort policy to non-GBR services.
◾ The UL scheduler ensures that the total bit rate of non-GBR services on a UE does not exceed the aggregate maximum bit rate (AMBR) for the UE.
GBR service priority calculation is dependent on the setting of the UlMbrCtrlSwitch option of the CellAlgoSwitch.UlSchSwitch parameter:
• If the UlMbrCtrlSwitch option is deselected, the total bit rate of GBR services does not exceed the sum of GBRs.
• If the UlMbrCtrlSwitch option is selected, the total bit rate of GBR services does not exceed the sum of MBRs.
A special treatment takes effect on bearers with a QCI of 1: The guaranteed rate and maximum rate of these services are twice the GBR and MBR, respectively. This design
aims to guarantee the QoS of low-rate small-packet services.
If the UlMinGbrSwitch option of the CellAlgoSwitch.UlSchSwitch parameter is selected, the eNodeB guarantees the QCI-specific minimum GBR (Min-GBR) for non-GBR
services, when possible. The Min-GBR is specified by the QciPara.UlMinGbr parameter. The eNodeB controls non-GBR service rates as follows:
• When radio resources are sufficient,
◾ If the Min-GBR of non-GBR services is less than or equal to the prioritized bit rate (PBR), the service rate can reach the Min-GBR.
◾ If the Min-GBR of non-GBR services is greater than the PBR, the service rate may not reach the Min-GBR, especially for low-priority non-GBR services. This
is because UEs guarantee the PBRs in descending order of logical-channel priorities.
• When radio resources are insufficient,
GBR services are preferentially scheduled, and the Min-GBR of non-GBR services may not be guaranteed.
UL service rate control at the eNodeB adopts the token bucket algorithm. The bucket size is equal to the guaranteed rate for all services. The token injection rate is equal to the
service rate. The number of tokens in the bucket indicates whether the service rate meets requirements.
After determining whether the service rate meets requirements, the eNodeB calculates the UE scheduling priority by using the following formula:
where:
•
•
•
indicates the channel quality.
indicates the historical number of bits transmitted by the UE per unit of time.
indicates the weight of the scheduling priority corresponding to the QCI of the service. A larger weight results in a higher scheduling priority. For details about the
weight setting, see QoS Management Feature Parameter Description.
•
indicates the capacity adjustment factor for EPF.
◾ When the factor is set to 1, the scheduling priority calculation is oriented towards UE fairness in resources.
◾ When the factor is set to a value smaller than 1, the scheduling priority calculation is oriented towards UE fairness in rates.
◾ When the factor is set to a value greater than 1, the scheduling priority calculation is oriented towards capacity.
6.1.2 UE Parameter Configurations for UL QoS
PBR
According to 3GPP specifications, the PBR must be preferentially ensured on the UL logical channels. This is because of the following reasons:
• The PBR prevents the service rate from dropping to zero on low-priority logical channels due to resource congestion.
• The PRB ensures that UEs on low-priority logical channels are scheduled even if resource congestion occurs.
The value range of the PBR for logical channels is specified in section 6.3.2 in 3GPP TS 36.331 V10.1.0 (2011-03). Table 6-1 lists the PBR configuration principle for GBR
services and non-GBR services.
Table 6-1 PBR configuration principle
Logical Channel Type
PBR
DCCH (SRB1 and SRB2)
infinity
QCI 1, QCI 65, QCI 66
16 KB/s
QCI 5, QCI 69
8 KB/s
QCI 2 to QCI 4
Configurable. The parameter is QciPara.PrioritisedBitRate.
QCI 6 to QCI 9
Other QCIs
Logical Channel Priority
Logical channels carry services for UEs. Differentiation between services with different QCIs is achieved by setting the QciPara.LogicalChannelPriority parameter. Table 6-2 lists
the recommended logical channel priorities for services with different QCIs.
Table 6-2 Recommended logical channel priorities for services with different QCIs
QCI Category QCI
Service Type
Logical Channel
Priority
Service Priority
Standardized 1 to 4
QCI
5
GBR service
6 to 10
N/A
6 to 9
IMS signaling
Non-GBR services
N/A
12 and 13
High-priority non-GBR
services
14 and 15
Low-priority non-GBR
services
Setting Notes
• A larger logical channel priority value indicates a
lower scheduling priority.
• To satisfy the QoS requirements of signaling with
QCI 5 and GBR services, it is recommended that:
◾ The logical channel priority for signaling
with QCI 5 and GBR services be set to a
value in the range of 6 to 10.
QCI Category QCI
Service Type
Logical Channel
Priority
Service Priority
69
PTT control-plane
signaling
4
N/A
65
PTT voice service
(GBR type)
5
N/A
7
N/A
70
Other PTT services
(Non-GBR type)
11
N/A
10 to 64
67 and 68
71 to 254
Non-GBR services
9 and 10
N/A
11 to 13
High-priority non-GBR
services
14 to 16
Low-priority non-GBR
services
66
Extended
QCI
Setting Notes
◾ The logical channel priority for non-GBR
services be set to a value in the range of
11 to 15.
• Non-GBR services excluding non-GBR PTT
services can be divided into low-priority non-GBR
services and high-priority non-GBR services as
follows:
◾ High-priority non-GBR services are
those for which the logical channel
priority is 11, 12, or 13.
◾ Low-priority non-GBR services are those
for which the logical channel priority is
14, 15, or 16.
• In this table, LCG_PROFILE_0 is used as an
example.
Logical Channel Group
A UE can report the total amount of buffered data for multiple services with different QCIs, but not for each individual service. This reduces system resource consumption. These
services must be mapped to the same logical channel. The eNodeB supports four logical channel groups. The GlobalProcSwitch.LcgProfile parameter specifies logical channel
group profiles. The following describes the parameter values and grouping principles:
• LCG_PROFILE_0
An eNodeB assigns only one logical channel group to non-GBR services.
Table 6-3 Logical channel groups in LCG_PROFILE_0
Category
Subdivision
Logical Channel Type
Logical Channel Group
Control-plane
signaling
RRC control-plane signaling
SRB1 and SRB2
0
IMS signaling
QCI 5
PTT control-plane signaling
QCI 69
PTT voice service
QCI 65
VoLTE service
QCI 1
PTT voice service
QCI 66
Other GBR services
QCI 2 to QCI 4
2
Other PTT services
QCI 70
3
Other non-GBR services
QCI 6 to QCI 9, QCI 10 to QCI 64, QCI 67,
QCI 68, and QCI 71 to QCI 254
GBR service
Non-GBR services
1
• LCG_PROFILE_1
An eNodeB assigns two logical channel groups to non-GBR services. VoLTE services and PTT services, together with control-plane signaling, are assigned logical
channel group 0. You are advised not to configure VoLTE services to ensure the scheduling priority of control-plane signaling.
Table 6-4 Logical channel groups in LCG_PROFILE_1
Category
Subdivision
Logical Channel Type
Logical Channel Group
Control-plane
signaling
RRC control-plane signaling
SRB1 and SRB2
0
IMS signaling
QCI 5
PTT control-plane signaling
QCI 69
PTT voice service
QCI 65 and QCI 66
VoLTE service
QCI 1
Other GBR services
QCI 2 to QCI 4
High-priority non-GBR services
QCI 6 to QCI 9, QCI 10 to QCI 64, QCI 67, 2
QCI 68, and QCI 70 to QCI 254
3
GBR service data
Non-GBR service
data
Low-priority non-GBR services
1
• LCG_PROFILE_2
An eNodeB assigns two logical channel groups to non-GBR services. PTT voice service data with QCI 66 and VoLTE service data, together with GBR services, are
assigned logical channel group 1. If VoLTE services and PTT voice services are configured, you are advised not to configure other GBR services to fulfill the QoS
requirements of VoLTE services and PTT services.
Table 6-5 Logical channel groups in LCG_PROFILE_2
Category
Subdivision
Logical Channel Type
Logical Channel Group
Control-plane
signaling
RRC control-plane signaling
SRB1 and SRB2
0
IMS signaling
QCI 5
Category
GBR service data
Non-GBR service
data
Subdivision
Logical Channel Type
PTT control-plane signaling
QCI 69
PTT voice service
QCI 65
VoLTE service
QCI 1
PTT voice service
QCI 66
Other GBR services
QCI 2 to QCI 4
High-priority non-GBR services
QCI 6 to QCI 9, QCI 10 to QCI 64, QCI 67, 2
QCI 68, and QCI 70 to QCI 254
3
Low-priority non-GBR services
Logical Channel Group
1
6.1.3 QoS Rate Guarantee for a Multi-Service UE
The UL scheduler assembles packets for a UE at the MAC layer and determines the data volume to be transmitted for each service. The MAC entity of the UE knows only the
PBR settings for each service but does not know the settings of QCI, GBR, MBR, and AMBR. The UE first assembles packets for the services that do not meet the PBR in
descending order of the logical channel priorities, and then assembles packets for all services in descending order of the logical channel priorities. For details, see section 5.4.3
in 3GPP TS 36.321 (2011-03).
When processing multiple services, the UE transmits high-priority service data first and then low-priority service data. The low-priority service rate does not exceed the PBR. The
UL scheduler does not guarantee or control service-specific rates. It guarantees only the total rate as follows based on the setting of the UlMbrCtrlSwitch option of the
CellAlgoSwitch.UlSchSwitch parameter:
• When the UE is processing multiple GBR services (no service data on the default bearer),
◾ If the UlMbrCtrlSwitch option is deselected, the UL scheduler allocates air interface resources by using a best-effort policy to ensure that the total rate of
GBR services on the UE reaches but does not exceed the sum of GBRs.
◾ If the UlMbrCtrlSwitch option is selected, the UL scheduler allocates air interface resources by using a best-effort policy to ensure that the total rate of GBR
services on the UE reaches but does not exceed the sum of MBRs.
• When the UE is processing multiple non-GBR services, the UL scheduler allocates air interface resources by using a best-effort policy to ensure that the total rate of
non-GBR services on the UE reaches but does not exceed the AMBR.
• When the UE is processing GBR and non-GBR services,
◾ If the UlMbrCtrlSwitch option is deselected, the UL scheduler allocates air interface resources by using a best-effort policy to ensure that the total rate of
services on the UE reaches but does not exceed the sum of GBRs plus the AMBR.
◾ If the UlMbrCtrlSwitch option is selected, the UL scheduler allocates air interface resources by using a best-effort policy to ensure that the total rate of
services on the UE reaches but does not exceed the sum of MBRs plus the AMBR.
6.2 UL Preallocation
During UL preallocation, eNodeBs proactively send UL scheduling indications to UEs. UL preallocation takes effect only when the CellUlschAlgo.UlschStrategy parameter is set
to ULSCH_STRATEGY_EPF.
6.2.1 Preallocation Modes
Preallocation can work in the following modes:
• Normal mode
• Smart mode
• Voice mode
Parameter settings for preallocation can be either cell level or QCI level. The eNodeB preferentially selects the preallocation mode based on QCI-level preallocation
configuration, if it is available.
NOTE:
Voice preallocation can be configured only at the cell level.
Figure 6-1 shows the relationship between the preallocation modes.
Figure 6-1 Relationship between the preallocation modes
NOTE:
If the EnhancedSchForSparseSwitch option of the CellAlgoSwitch.UlSchExtSwitch parameter is selected, the preallocation of sparse-packet services is irrelevant to the UE
quantity (50) described in Figure 6-1.
Normal Preallocation
Normal preallocation is controlled by the PreAllocationSwitch(PreAllocationSwitch) option of the CellAlgoSwitch.UlSchSwitch parameter.
The preallocation duration does not take effect for normal preallocation, and preallocation cannot be performed in DRX mode.
Smart Preallocation
Smart preallocation is controlled by the SmartPreAllocationSwitch(SmartPreAllocationSwitch) option of the CellAlgoSwitch.UlSchSwitch parameter on condition that the
PreAllocationSwitch(PreAllocationSwitch) option of this parameter has been turned on.
Smart preallocation is triggered by DL services and cannot be performed before UL TCP services start, such as web browsing. This results in increased service start delay.
Throughput when smart preallocation is enabled is slightly less than that when normal preallocation is enabled.
The preallocation duration is specified by the CellUlschAlgo.SmartPreAllocationDuration and CellUlschAlgo.SmartPreAllocDuraForSparse parameters, and smart preallocation
can be performed in DRX mode.
The preallocation duration for sparse packets, which are ping service packets, is determined by the larger one between the values of the
CellUlschAlgo.SmartPreAllocationDuration and CellUlschAlgo.SmartPreAllocDuraForSparse parameters.
• If both the CellUlschAlgo.SmartPreAllocationDuration and CellUlschAlgo.SmartPreAllocDuraForSparse parameters are set to 0, smart preallocation is disabled.
• The larger the values of the CellUlschAlgo.SmartPreAllocationDuration and CellUlschAlgo.SmartPreAllocDuraForSparse parameters, the higher the UE power
consumption.
NOTE:
Currently, preallocation of sparse-packet services only works for ping services.
To strike a tradeoff between network throughput and UE power consumption, and ensure that ping responses accurately reflect the packet round-trip delay on live networks, it is
recommended that the CellUlschAlgo.SmartPreAllocationDuration parameter be set to a small value (such as 50 ms) and the CellUlschAlgo.SmartPreAllocDuraForSparse
parameter be set to a value greater than the interval of ping services (such as 1500 ms).
Voice Preallocation
Voice preallocation is controlled by the UlVoipPreAllocationSwitch(UlVoipPreAllocationSwitch) option of the CellUlschAlgo.UlEnhencedVoipSchSw parameter on condition
that the PreAllocationSwitch(PreAllocationSwitch) option of the CellAlgoSwitch.UlSchSwitch parameter has been turned on.
The voice preallocation duration consists of the talk spurts of VoIP users, and UEs in the DRX state support voice preallocation. The minimum interval of voice preallocation is
set to 20 ms and cannot be changed. For a UE in the DRX state, the voice preallocation duration is the smaller one between 20 ms and the value of the
DrxParaGroup.DrxInactivityTimer parameter.
Factors Affecting Preallocation
Cell-level preallocation depends on the DRX state of UEs and the preallocation status of UEs configured with an SPID.
• UEs in the DRX state do not support normal preallocation but support smart preallocation and voice preallocation.
NOTE:
For details about the DRX state, see DRX and Signaling Control Feature Parameter Description.
• The eNodeB can control the preallocation status of UEs configured with an SPID.
If a UE configured with an SPID does not support the preallocation status, the UE does not support preallocation.
NOTE:
For details about preallocation for UEs with an SPID, see Flexible User Steering Feature Parameter Description.
6.2.2 Parameter Settings for Preallocation
Cell-level Parameter Settings
The parameters in MOs CellAlgoSwitch, CellUlschAlgo, and QciPara must be set for preallocation.
The PreAllocationSwitch option of the CellAlgoSwitch.UlSchSwitch parameter is the overall switch that determines whether to enable preallocation. Cell- and QCI-level
preallocation functions can take effect only if this option has been selected.
QCI-level Parameter Settings
The parameters in MOs CellQciPara and CellPreallocGroup must be set for preallocation.
QCI-level preallocation is dependent on the setting of the cell-level switch PreAllocationSwitch.
• If this switch is off, QCI-level preallocation does not take effect.
• If this switch is on, QCI-level preallocation allows different preallocation parameters for services with QCI 1 to QCI 9, and the parameter settings comply with the
minimum delay principle.
6.2.2.1 Cell-level Preallocation Configurations
The total resources for preallocation are specified by the CellUlschAlgo.PreAllocationBandwidthRatio parameter. This parameter determines the maximum proportion of the total
RBs available for preallocation in a TTI to the system bandwidth.
NOTE:
If the EnhancedSchForSparseSwitch option of the CellAlgoSwitch.UlSchExtSwitch parameter is selected, the CellUlschAlgo.PreAllocationBandwidthRatio parameter does
not take effect on sparse-packet services. This allows all PUSCH RBs to be preallocated for sparse-packet services in a TTI.
The amount of data that can be preallocated to a UE in a preallocation queue is specified by the CellUlschAlgo.PreAllocationSize parameter.
The amount of voice data that can be preallocated to a UE in a preallocation queue is specified by the larger value between the CellUlschAlgo.PreAllocationSize parameter and
the voice packet size. The voice packet size depends on the coding rate of the VoIP user. For details, see VoLTE Feature Parameter Description.
The data volume for smart preallocation on a UE varies depending on common services and sparse-packet services.
• For common services, the data volume for smart preallocation is specified by the CellUlschAlgo.PreAllocationSize parameter.
• For sparse-packet services, the data volume for smart preallocation is specified by the CellUlschAlgo.PreallocationSizeForSparse parameter.
If the preallocation function is enabled, and PUSCH resources are still available after UEs with unsatisfied GBR, UEs with unsatisfied Min-GBR, and UEs with satisfied Min-GBR
but unsatisfied AMBR are scheduled, then a UE with unsatisfied AMBR is placed in the preallocation queue provided the following conditions are met:
• The UE is not scheduled within the current TTI.
• The UE meets the requirement for the minimum interval between preallocations.
The minimum interval between preallocations is specified by the CellUlschAlgo.PreAllocationMinPeriod parameter. If the interval is 1, UEs can be preallocated in each
TTI. If the interval is 2, UEs can be preallocated once every two TTIs.
If smart preallocation is enabled the minimum interval between preallocations for sparse-packet services is specified by the CellUlschAlgo.PreAllocMinPeriodForSparse
parameter.
If this parameter is set to a value other than SAME_AS_OTHER_SERVICE, the minimum interval between preallocations for sparse-packet services is determined by
the setting of this parameter. If this parameter is set to SAME_AS_OTHER_SERVICE, the minimum interval between preallocations for sparse-packet services is
determined by the setting of the CellUlschAlgo.PreAllocationMinPeriod parameter.
• The UE has not undergone semi-persistent scheduling.
• The UE has a preallocation weight greater than 0.
The preallocation weight is specified by the QciPara.PreAllocationWeight parameter, which is QCI-specific. The preallocation weight of a UE is determined by the
preallocation weight of the services with the highest-priority QCI.
The resource preallocation priorities of UEs in the preallocation queue are determined by the number of preallocations and the preallocation weight. A UE with a smaller number
of preallocations and a greater preallocation weight has a higher priority. If UEs have the same priority and preallocation weight, the eNodeB randomly selects UEs for
preallocation.
NOTE:
UL preallocation increases the number of times the eNodeB proactively schedules UEs and quickens responses to UE service requests. However, UL preallocation may
increase PDCCH overheads and UL interference, and also prolong the UL data transmission duration. As a result, the calculated average UL throughput decreases, given an
unchanged UL total traffic volume. The average UL throughput equals the UL traffic volume divided by the UL data transmission duration. However, the eNodeB cannot measure
the duration when the data packets are buffered on the UE side. Therefore, the calculated result can be used for reference only and cannot be used for the accurate evaluation
of data rates experienced by users. When the switch for dynamic adjustment on the number of orthogonal frequency division multiplexing (OFDM) symbols occupied by the
PDCCH is turned on, the ratio of the OFDM symbols occupied by the PDCCH to the total OFDM symbols is increased.
Smart preallocation achieves a better tradeoff than normal preallocation among system gains, PDCCH overhead, and UL interference. When a small TCP window is configured
on the server, the DL web browsing rate is sensitive to the UL loopback TCP packet delay. Compared with UL normal preallocation, UL smart preallocation increases the delay
and therefore decreases the DL web browsing rate. UL smart preallocation also increases the start delay for services initiated by upstream devices.
6.2.2.2 QCI-level Preallocation Configurations
In QCI-level preallocation, preallocation parameter groups are configured based on QCI levels. A preallocation parameter group includes the configurations of the preallocation
mode, data volume, minimum preallocation interval, and preallocation duration. Figure 6-2 shows the association between QCI levels and preallocation parameter groups. A QCI
associates with only one preallocation parameter group.
Figure 6-2 QCI-level preallocation configurations
Preallocation Procedure
The eNodeB traverses the QCIs of all bearers that have been established on a UE.
• If one or more QCIs are configured with valid values of PreallocationParaGroupId,
The eNodeB preferentially uses QCI-level preallocation configurations for the UE.
If multiple QCIs are configured with valid values of PreallocationParaGroupId, the eNodeB selects preallocation configurations for the UE based on the minimum
delay principle. The specific rules are as follows:
◾ Rule of preallocation mode selection
The eNodeB preferentially uses the configurations for normal preallocation. If the configurations for normal preallocation are unavailable, the eNodeB uses the
configurations for smart preallocation.
◾ Rule of parameter selection in normal preallocation
If multiple sets of normal preallocation configurations are available, the minimum preallocation interval equals the minimum one among the configurations and
the data volume for preallocation equals the maximum one among the configurations.
◾ Rule of parameter selection in smart preallocation
If multiple sets of smart preallocation configurations are available, the minimum preallocation interval equals the minimum one among the configurations, the
data volume for preallocation equals the maximum one among the configurations, and the smart preallocation duration equals the maximum one among the
configurations.
• If none of QCIs is configured with a valid value of PreallocationParaGroupId,
The eNodeB uses cell-level preallocation configurations for the UE.
6.3 Uplink Traffic Model Based Scheduling
This section describes LOFD-110205 Traffic Model Based Performance Optimization.
With this feature, the eNodeB preferentially schedules the UEs running small-amount data services and experiencing good signal quality to reduce user wait time. This feature
increases the perceived data rates and improves user experience while basically maintaining cell capacity.
Specifically, in scenarios with a heavy traffic load (for example, the RB usage is greater than 60%), the user-perceived data rate increases by 5% to 20%. This feature works in
cells with a bandwidth of at least 5 MHz.
This feature is controlled by the UlPacketLenAwareSchSw option of the parameter CellAlgoSwitch.UlSchExtSwitch.
• When this option is deselected, this feature is disabled.
• When this option is selected, this feature is enabled.
7
Related Features
7.1 LBFD-001006 AMC
Prerequisite Features
None
Mutually Exclusive Features
None
Impacted Features
None
7.2 LBFD-002005 DL Asynchronous HARQ
Prerequisite Features
None
Mutually Exclusive Features
None
Impacted Features
Feature ID
Feature Name
Description
LBFD-002017
DRX
When DRX is enabled, the wait time for HARQ retransmission is specified
by the DrxParaGroup.DrxReTxTimer parameter.
7.3 LBFD-002006 UL Synchronous HARQ
Prerequisite Features
None
Mutually Exclusive Features
None
Impacted Features
None
7.4 LBFD-002025 Basic Scheduling
Prerequisite Features
None
Mutually Exclusive Features
Feature ID
Feature/Function Name
Description
LOFD-070208
Coordinated Scheduling based Power Control
None
N/A
Frequency hopping
The UL Multi-Cluster function under basic scheduling does not
work with frequency hopping.
NOTE:
Frequency hopping is enabled when the CellUlschAlgo.UlHoppingType parameter is set to a value other than Hopping_OFF.
Impacted Features
Feature ID
Feature Name
Description
LOFD-001048
TTI Bundling
The UL Multi-Cluster function does not take effect on UEs in the
TTI bundling state.
7.5 LBFD-060102 Enhanced UL Frequency Selective Scheduling
Prerequisite Features
None
Mutually Exclusive Features
Feature ID
Feature Name
Description
LBFD-121102
eRAN12.1 Introduction Package
The UlEnhancedDopplerSwitch option of the
CellAlgoSwitch.UlSchSwitch parameter for the
Enhanced UL Frequency Selective Scheduling
feature and the PAMC function in the eRAN12.1
Introduction Package feature cannot take effect at
the same time.
Impacted Features
None
7.6 LBFD-060103 Enhanced DL Frequency Selective Scheduling
Prerequisite Features
None
Mutually Exclusive Features
None
Impacted Features
None
7.7 LBFD-070102 MBR>GBR Configuration
Prerequisite Features
None
Mutually Exclusive Features
None
Impacted Features
None
7.8 LBFD-070106 PDSCH Efficiency Improvement
Prerequisite Features
None
Mutually Exclusive Features
Feature ID
Feature Name
Description
LOFD-070208
Coordinated Scheduling based Power
Control
CSPC and eCSPC work in high-interference scenarios while adaptive power
allocation for cell-edge UEs works in low-interference scenarios. They work in
different scenarios and therefore adaptive power allocation for cell-edge UEs is
incompatible with CSPC and eCSPC. (CSPC and eCSPC work in centralized
Cloud BB networks and IP RAN networks, respectively.)
LOFD-001007
High Speed Mobility
LOFD-001008
Ultra High Speed Mobility
Adaptive power allocation for cell-edge UEs reduces UEs' channel tracking
capabilities in high-speed and ultra-high-speed scenarios, causing these features
to produce negative gains.
LOFD-001002
UL 2x2 MU-MIMO
LOFD-001058
UL 2x4 MU-MIMO
LAOFD-120201
DL CoMP (Trial)
DL CoMP aims to improve the performance of cell-edge UEs in high-interference
scenarios while adaptive power allocation for cell-edge UEs aims to improve the
performance of cell-edge UEs in low-interference wide-coverage scenarios. They
work in different scenarios and therefore are mutually exclusive.
Feature ID
Feature/Function Name
Description
N/A
Target IBLER adaptation
When both target IBLER adaptation and adaptive power allocation for cell-edge
UEs are enabled, the performance of cell-edge UEs may further improve.
MRFD-090202
GSM and LTE FDD Dynamic Spectrum
Sharing (LTE FDD)
After this feature is enabled, the shared spectrum may experience high GSM
interference. Adaptive power allocation for cell-edge UEs takes effect only for
UEs scheduled in the LTE-only spectrum.
LOFD-070208
Coordinated Scheduling based Power
Control
In the TTIs when adaptive power allocation for cell-edge UEs takes effect, the
power on some RBs is increased, affecting interference estimation in intraeNodeB CSPC.
N/A
Carrier aggregation
Adaptive power allocation for cell-edge UEs works normally for UEs in their
PCells. However, there is a low probability that this function takes effect for UEs
in their SCells.
LEOFD-110301
DL 256QAM
Adaptive power allocation for cell-edge UEs does not take effect for UEs for
which 256QAM is used in the downlink.
MU-MIMO and adaptive power allocation for cell-edge UEs both require MCS
adjustment for UEs and therefore are mutually exclusive.
Impacted Features
Feature ID
Feature/Function Name
Description
LOFD-003029
SFN
LOFD-070205
Adaptive SFN/SDMA
These SFN features combine physical cells into an SFN cell, and the signal
quality improves for the UEs located at the edges of the physical cells. Adaptive
power allocation for cell-edge UEs stops taking effect for these UEs.
7.9 LBFD-00101501 CQI Adjustment
Prerequisite Features
None
Mutually Exclusive Features
None
Impacted Features
None
7.10 LBFD-00101502 Dynamic Scheduling
Prerequisite Features
Feature ID
Feature Name
Description
LBFD-002008
Radio Bearer Management
If RlcPdcpParaGroup.RlcParaAdaptSwitch is set to
OFF(Off) in all RLC/PDCP parameter groups with
RLC transmission mode set to AM,
DLRLCStateReportSchDelaySw
(DLRLCStateReportSchDelaySw) under the
CellAlgoSwitch.DlSchSwitch parameter must be off.
Feature ID
Feature Name
Description
LBFD-121102
eRAN12.1 Introduction Package
UL target IBLER adaptation in the Dynamic
Scheduling feature cannot work together with
PAMC in the eRAN12.1 Introduction Package
feature.
Mutually Exclusive Features
Impacted Features
Feature ID
Feature Name
Description
LBFD-002017
DRX
UL preallocation is affected by the DRX state of UEs. UEs in the DRX state
do not support normal preallocation but support smart preallocation and
voice preallocation.
LOFD-001059
UL Pre-allocation Based on SPID
UL preallocation is affected by this feature. If a UE configured with an SPID
does not support the preallocation status, the UE does not support
preallocation.
7.11 LOFD-001109 DL Non-GBR Packet Bundling
Prerequisite Features
None
Mutually Exclusive Features
None
Impacted Features
Function
Description
Non-GBR services and VoLTE When UEs are processing non-GBR services and VoLTE services, enabling the feature LOFD-001109 DL Non-GBR Packet
services
Bundling has the following impact:
• The VoLTE service quality may slightly decrease, while still being satisfactory.
• The DL non-GBR throughput increases if the non-GBR service scheduling probability is low before this feature is
enabled because VoLTE services take precedence and occupy more PDCCH resources.
The non-GBR DL throughput increases with the number of users using VoIP services with satisfactory quality. The
throughput increase also depends on the non-GBR user distribution, traffic volume, system bandwidth, and other
factors.
7.12 LOFD-110205 Traffic Model Based Performance Optimization
Prerequisite Features
None
Mutually Exclusive Features
None
Impacted Features
None
7.13 LBFD-121102 eRAN12.1 Introduction Package
Prerequisite Features
None
Mutually Exclusive Features
Feature ID
Feature Name
Description
LBFD-00101502
Dynamic Scheduling
UL target IBLER adaptation in the Dynamic
Scheduling feature cannot work together with
PAMC in the eRAN12.1 Introduction Package
feature.
LBFD-060102
Enhanced UL Frequency Selective Scheduling
The UlEnhancedDopplerSwitch option of the
CellAlgoSwitch.UlSchSwitch parameter for the
Enhanced UL Frequency Selective Scheduling
feature and the PAMC function in the eRAN12.1
Introduction Package feature cannot take effect at
the same time.
LOFD-120202
Intra-eNodeB and Inter-eNodeB Uplink Interference UL IC cannot work together with PAMC in the
Cancellation
eRAN12.1 Introduction Package feature.
Impacted Features
Feature ID
Feature Name
Description
LOFD-081206
Uplink Coordinated Scheduling
If the coordinated resource allocation (CRA)
function in the Uplink Coordinated Scheduling
feature has been enabled, the PAMC function
results in a decrease in the number of interferencesensitive UEs and therefore reduces the gains of
the CRA function.
8
Network Impact
This chapter describes the impact of scheduling-related features on network performance.
8.1 LBFD-001006 AMC
System Capacity
This feature increases spectral efficiency.
Network Performance
No impact.
8.2 LBFD-002005 DL Asynchronous HARQ
System Capacity
This feature increases the cell DL throughput and reduces the DL transmission delay.
Network Performance
When HARQ retransmissions use a lowered TBS index, the DL RBLER and call drop rate decrease but DL throughput may also decrease. When the maximum number of DL
HARQ retransmissions retains the default value, DL throughput decreases slightly. The smaller the maximum number of DL HARQ retransmissions, the greater the DL
throughput loss.
8.3 LBFD-002006 UL Synchronous HARQ
System Capacity
This feature increases the network UL throughput and reduces the UL transmission delay.
Network Performance
When UL HARQ retransmissions increase the RBs for scheduling and reduce the code rate, the UL RBLER, call drop rate, and packet loss rate of voice services decrease but
UL throughput may be reduced. When the maximum number of UL HARQ retransmissions retains the default value, UL throughput decreases slightly. The smaller the maximum
number of UL HARQ retransmissions, the greater the UL throughput loss.
8.4 LBFD-002025 Basic Scheduling
System Capacity
• The Max C/I algorithm sacrifices the fairness between UEs within a cell for the maximal cell throughput. A UE that is constantly experiencing poor channel conditions
cannot be scheduled. As a result, user experience is poor.
• The RR algorithm ensures scheduling fairness between UEs in a cell. However, it decreases the cell throughput.
• The PF algorithm is a compromise between Max C/I and RR, but it does not ensure that the QoS of user services can be maintained.
If the CellUlschAlgo.MaxUlSchRbNum parameter is set to a value other than 255 and the value is less than the expected number of RBs to be allocated in the UL, the number of
RBs that can be allocated to a UE is restricted, affecting UL capacity.
• If the CellUlschAlgo.MaxUlSchRbNum parameter is set to a small value, the maximum number of RBs that can be allocated in UL scheduling is small.
• If the CellUlschAlgo.MaxUlSchRbNum parameter is set to a large value, the maximum number of RBs that can be allocated in UL scheduling is large. However, the
maximum number will not exceed the number limited by the UL bandwidth.
When there are UL frequency spectrum fragments, the UL Multi-Cluster function helps increase the UL PRB usage of cells.
Network Performance
• If the CellUlschAlgo.MaxUlSchRbNum parameter is set to a value other than 255 and the value is less than the expected number of RBs to be allocated in the UL, the
peak UL throughput of UEs decreases and the user-perceived data rates of UEs with large-packet data transmissions also decrease.
• If the CellUlschAlgo.MaxUlSchRbNum parameter is set to a value less than 4, the access success rate, handover success rate, and RRC connection reestablishment
success rate decrease, and the service drop rate increases.
When there are UL frequency spectrum fragments, the UL Multi-Cluster function helps increase the UL peak throughput of UEs.
8.5 LBFD-060102 Enhanced UL Frequency Selective Scheduling
System Capacity
Enabling this feature for a cell serving lots of users reduces UL interference with UEs and increases the MCS index, increasing UL cell throughput. The feature yields significant
gains when UL PRB usage is less than 70%. The feature yields insignificant gains when UL PRB usage is greater than or equal to 70%.
Enhanced UL frequency selective scheduling provides UEs in the cell with more opportunities to be scheduled by frequency selective scheduling. It yields larger gains of UL
frequency selective scheduling and improves spectral efficiency for uplink transmission.
When optimized UL frequency selective scheduling based on the estimated UE speed is enabled, low-speed UEs that perform continuous UL data transmission for a long period
of time (for example, longer than 20s) can achieve larger gains of frequency selective scheduling at far or medium distances from cell center. This improves throughput and
spectral efficiency, increasing network capacity.
When the UlFssWindSearchDirRandSw option of the CellAlgoSwitch.UlSchExtSwitch parameter is selected, the UL throughput of UEs for which SRS has not been configured
increases.
Network Performance
When the interference on the PUSCH in a cell is less than –110 dBm, UL interference-based frequency selective scheduling does not always select the band where interference
is lower. UL throughput may decrease.
When SRS transmission is disabled, UL interference-based frequency selective scheduling reduces UL RBLER and therefore increases UL throughput.
When SRS transmission is enabled, UL interference-based frequency selective scheduling may increase UL RBLER and therefore decrease UL throughput.
8.6 LBFD-060103 Enhanced DL Frequency Selective Scheduling
System Capacity
This feature increases the DL cell throughput.
This feature shortens the period of a frequency selective scheduling decision and enables fast reporting of Doppler measurements, accelerating the process of entering DL
frequency selective scheduling for low-speed UEs to further improve spectral efficiency and increase the perceivable DL user rates.
Aperiodic CQI reporting will become frequent if the period of a frequency selective scheduling decision is shortened. This raises the number of consumed UL RBs and increasing
UL interference. In this situation, the perceivable UL user rates and the selected UL MCS may decrease, and the UL residual BLER may increase. To minimize the impact,
enable the enhanced UL frequency selective scheduling function and set the cell resource allocation policy to FS_INRANDOM_ADAPTIVE (adaptive switchover between
frequency selective allocation and interference-randomization-based non-frequency-selective allocation). For details, see 11.5 Deploying Enhanced UL Frequency Selective
Scheduling.
If the UL MCS decreases, the number of fragmented UL voice packets for cell edge users may increase. If there are too many fragmented UL voice packets, the packet loss rate
for voice services may increase. To mitigate the adverse impact, enable related voice service optimization functions. For details, see VoLTE Feature Parameter Description.
Network Performance
After downlink frequency selective scheduling takes effect, the CPU usage increases.
A longer validity period of subband CQIs aperiodically reported by UEs in frequency selective scheduling results in a higher probability that valid subband CQIs are used for
frequency selective scheduling and therefore higher DL throughput gains. However, with the period increased, the accuracy and timeliness of aperiodically reported CQIs
decrease, reducing the average accuracy of MCS selection for DL transmission and potentially affecting DL throughput. A shorter period results in more accurate aperiodically
reported CQIs but a lower probability that valid subband CQIs are used for frequency selective scheduling, causing a decrease in the DL throughput gains of frequency selective
scheduling.
A longer period of triggering aperiodic CQI reporting in frequency selective scheduling results in a smaller number of aperiodically reported CQIs and a lower probability that
frequency selective scheduling is selected for UEs, affecting the DL throughput gains of frequency selective scheduling. A shorter period results in a higher probability that
frequency selective scheduling is selected for UEs. However, a larger number of aperiodic CQI reports increases UL RB consumption and UL interference, potentially affecting
UL performance.
8.7 LBFD-070102 MBR>GBR Configuration
System Capacity
GBR bearers consume more resources when system congestion occurs. The resources available for non-GBR bearers are reduced. In this situation, throughput on the non-GBR
bearers declines, and even cell throughput also declines.
With this feature, the services carried on the GBR bearers will reach rates that are greater than the GBR but do not exceed the MBR, if the allocated resources are sufficient.
Network Performance
No impact.
8.8 LBFD-070106 PDSCH Efficiency Improvement
System Capacity
The function of MCS selection with prioritized RBs and the function of MCS selection for transmission of small-amount data reduce the number of retransmissions and the
scheduling delay of small-traffic services. These functions increase UEs' data rates but decrease DL spectral efficiency.
PDCCH and PDSCH resource balancing increases DL RB utilization and DL throughput for a cell serving more than 200 UEs in RRC_CONNECTED mode with PDCCH
resource congestion (PDCCH CCE usage greater than 70%) and low PDSCH resource usage (DL PRB usage less than 80%).
Network Performance
PDCCH and PDSCH resource balancing increases the scheduling priority of UEs with DL large-packet data transmission, but it also increases the scheduling delay of UEs with
DL small-packet data transmission. If the incremental amplitude of the DL transmission delay is greater than that of the DL traffic volume, the average user-perceived DL data
rates will decrease in the cell.
PDCCH and PDSCH resource balancing improves DL RB utilization in applicable scenarios. However, this function increases DL interference and the value of the "Service Drop
Rate (All)" KPI may slightly increase.
In light-load wide-coverage scenarios, adaptive power allocation for cell-edge UEs increases the throughput of cell-edge UEs allocated limited radio resources.
If the load of a cell is light, for example the PRB usage is less than 20%, air interface delay is reduced for a larger number of UEs with small-traffic services when the setting of
the CellDlschAlgo.RBPriMcsSelectStrategy parameter is changed from SINGLEUSER_STRATEGY to MULTIUSR_LOWMCSLIMIT_STRATEGY. (This parameter is used in the
MCS selection with prioritized RBs function.) However, the IBLER increases for UEs with poor channel quality, for example in a suburb, and the scheduling delay and packet loss
rate also increase for these UEs, especially UEs running voice services. This is due to the limitation that the MCS index can be reduced by 3 at most.
8.9 LBFD-00101501 CQI Adjustment
System Capacity
This feature, using a closed-loop mechanism to dynamically compensate for inaccurate CQIs reported by UEs, optimizes MCS selection and increases overall throughput.
Using adaptive target IBLER values can improve the spectral efficiency for UEs using small-packet services in the cell center or at medium distances from the cell center and cell
edge UEs. Increasing the target IBLER can also improve the capacity of heavily loaded cells. However, a higher target IBLER value will increase the number of retransmissions,
which may prolong the data transmission duration. As a result, the perceived throughput may decrease.
The enhanced function of DL target IBLER adaptation increases DL throughput when the channel quality fluctuates or when the proportion of small-packet data transmission is
high. However, this enhanced function may increase the RBLER.
The optimized algorithm for calculating the DL CQI adjustment value prevents delayed CQI adjustment due to a prolonged CQI adjustment period when the cell serves a
massive number of users. This algorithm improves IBLER convergence and DL throughput.
The initial step in DL CQI adjustment is configurable. Decreasing the initial step increases the handover success rate and reduces the DL RBLER, but may reduce DL throughput
of UEs in the event of initial access and handovers. Increasing the initial step may decrease the handover success rate and raise the DL RBLER, but can increase DL throughput
of UEs in the event of initial access and handovers.
Network Performance
Target IBLER adaptation may cause the user-perceived DL throughput KPI to decrease when there is a relatively high proportion of small-packet services. That is because this
KPI does not take certain UEs in the cell center into consideration when spectral efficiency has increased and scheduling time has been shortened. It is recommended that
network performance be evaluated based on the DL UE throughput calculated with time conversion considering small packets. This throughput is equal to L.Thrp.bits.DL divided
by L.Thrp.Time.DL.SmallPktConverted.
8.10 LBFD-00101502 Dynamic Scheduling
System Capacity
• This feature helps achieve a tradeoff between UE fairness and cell throughput while meeting QoS requirements.
• UL normal or smart preallocation has the following impacts on network performance:
◾ The Service Uplink Average Throughput KPI is affected.
Counter ID
Counter Name
Counter Description
KPI
1526728259
L.Thrp.bits.UL
Total uplink traffic
volume of PDCP
PDUs in a cell
Service Uplink Average Throughput =
L.Thrp.bits.UL/L.Thrp.Time.UL
After normal or smart preallocation is enabled, the number of times
the eNodeB proactively schedules UEs increases if the value of
L.Thrp.bits.UL is the same before and after normal or smart
preallocation is enabled. Therefore, packets are scheduled more
frequently and the wait time of UL packets in the UE buffer is
reduced.
1526728260
L.Thrp.Time.UL
Total uplink PDCP
data reception
duration in a cell
• On the UE side, the user-perceived data rates increase
because the time reduction in data buffering on UEs is
greater than the time increment in UL data scheduling.
• On the E-UTRAN side, the Service Uplink Average
Throughput KPI decreases. This is because the value of
L.Thrp.Time.UL increases when the number of times that
the eNodeB proactively schedules UEs increases.
In summary, the Service Uplink Average Throughput KPI cannot be
used for estimating the impact of preallocation on user-perceived data
rates, because L.Thrp.Time.UL does not measure the duration when
UL data is buffered on UEs.
Specially, when a UE is in the DRX state:
• If UL normal preallocation has been enabled:
The eNodeB proactively exits the preallocation mode for the
UE and the Service Uplink Average Throughput KPI
increases.
• If UL smart preallocation has been enabled:
The eNodeB retains the smart preallocation mode for the UE
and the Service Uplink Average Throughput KPI is not
affected.
◾ The number of RBs increases for UL frequency selective scheduling and also for UL CoMP if UL CoMP is used.
◾ UL ROHC will yield few gains in resource saving if the eNodeB increases the scheduled packet size to a value greater than the voice packet size.
• When PUSCH DTX detection is enabled, the UL scheduler stops invalid retransmissions and performs initial transmissions based on the PUSCH DTX detection result,
saving UL resources and increasing throughput.
• When scheduling termination for abnormal UEs is enabled, the eNodeB does not schedule UEs with abnormal links, saving system resources. This function increases
cell throughput when resources are insufficient.
• If the scheduler-controlled power function is enabled, the MCS index selected for UL transmission and the UL throughput increase in scenarios where the UL PRB
usage is low and UL interference is light. It is recommended that the scheduler-controlled power function be disabled in scenarios that meet the following conditions to
prevent possible UL capacity decrease:
◾ The percentage of UEs with UL path loss greater than or equal to 120 dB is greater than 70%. The percentage can be calculated using the following formula:
Percentage = Sum of the values of L.Traffic.User.PL7 to L.Traffic.User.PL10/Sum of the values of L.Traffic.User.PL0 to L.Traffic.User.PL10.
◾ The PUSCH PRB usage is greater than 80%.
◾ The values of L.UL.Interference.Avg for the local cell and its neighboring cells are all lower than –116 dBm.
◾ The value of L.Traffic.SUNPT.UL.Avg is greater than 10.
If the scheduler-controlled power function is enabled in scenarios that meet the preceding conditions, the UL capacity and throughput decrease because a smaller
number of UEs are scheduled. To reduce this negative effect, enable the function of RB number calculation based on UL data volume matching. This function
increases the CCE usage.
• After PDCCH and PUSCH resource balancing is enabled, UL network capacity increases in scenarios where the cell serves a large number of UEs and UL RB
utilization is low due to PDCCH resource insufficiency.
• After PUCCH RB occupation by PUSCH is enabled, the UL peak rate of a single UE increases.
• When data amount adaptation in SR-based scheduling is enabled:
◾ If the UL PRB usage is less than or equal to 90%, this function increases UL UE throughput.
◾ If the UL PRB usage is greater than 90% and the CellUlschAlgo.UlSrSchDataVolAdptOptUpThd parameter is set to 2000, this function increases UL traffic
volume and UL cell throughput.
Network Performance
• Dynamic scheduling helps meet the QoS requirements of services with various QCIs and provides differentiated services for UEs.
• For the logical channel priority settings of QCI 1 to QCI 5:
◾ If the logical channel priority of QCI 1 is lower than that of QCI 2 to QCI 4, CS service packet loss may occur in hybrid services of QCI 1 and QCI 2 to QCI 4.
◾ If the logical channel priority of QCI 1 is higher than that of QCI 5, the scheduling delay of QCI 5 may slightly increase in multi-bearer service scenarios for
QCI 1 and QCI 5.
◾ If the logical channel priority of QCI 1 is higher than that of QCI 5 and the preallocation weight for QCI 1 is 0 (indicating that preallocation is disabled when the
bearer for QCI 1 is available), CS service packet loss may occur due to missing detection of scheduling requests.
• UL normal or UL smart preallocation affects user experience.
By increasing the number of times that the eNodeB proactively schedules UEs, UL normal preallocation or UL smart preallocation shortens the duration when UL data
is buffered on UEs, increases the speed of response to UE service requests, and improves user experience.
Compared with UL normal preallocation, UL smart preallocation decreases signaling overheads on the PDCCH and UL interference. However, UL smart preallocation
increases UL delay, and decreases the web browsing rate when a small TCP window is configured on the server.
UL normal preallocation or smart preallocation also shortens the average RRC connection setup duration (indicated by L.RRC.ConnSetup.TimeAvg) and average E-RAB
setup duration (indicated by L.E-RAB.Est.TimeAvg).
With UL normal preallocation or smart preallocation, the eNodeB prevents the E-RAB setup signaling reception failures caused by missing detection of SRs sent from
UEs. That is, UL normal preallocation or smart preallocation helps increase the E-RAB setup success rate.
UL normal preallocation or smart preallocation consumes more Uu resources, increasing CCE usage and RB usage. An increased UL RB usage results in increased
UL interference, causing KPIs related to accessibility, mobility, and retainability to deteriorate. Additionally, the packet loss rate of voice services increases.
Compared with UL normal preallocation and smart preallocation, UL voice preallocation increases the opportunity that voice services are scheduled, reducing the delay
of voice services.
Specially, when a UE is in the DRX state:
◾ If UL normal preallocation has been enabled:
The eNodeB proactively exits the preallocation mode for the UE, and user experience of the UE cannot be improved.
◾ If UL smart preallocation has been enabled:
The eNodeB retains the smart preallocation mode for the UE, and therefore can improve the user experience of the UE. However, this also consumes more
power of the UE, and the amount of power consumption has a positive correlation with the duration of UL smart preallocation.
• Scheduling termination for abnormal UEs reduces the residual block error rate (RBLER). However, this function results in a longer scheduling delay, lower perceivable
throughput, and higher service drop probability for UEs under weak coverage.
• PDCCH and PUSCH resource balancing increases UL cell throughput and UL RB usage in scenarios where the cell serves a large number of UEs and UL RB usage is
low due to PDCCH resource insufficiency. However, this function may increase UL interference. PDCCH and PUSCH resource balancing preferentially selects cell
center users for scheduling, thereby reducing the UL CCE usage.
• UL IBLER adjustment increases UL user throughput.
• UL RLC segment reduction deteriorates the call drop rate slightly.
• PUCCH RB occupation by PUSCH increases the PUCCH interference and causes network KPIs to slightly deteriorate. Therefore, the function is not recommended on
commercial networks.
• When DL frequency selective scheduling is used, a smaller value of the CellDlschAlgo.NoSchStopACqiThd parameter results in a smaller number of aperiodic CQI
reports, reducing UL interference, increasing UL UE data rates, and decreasing the DL throughput of UEs to which DL frequency selective scheduling is applied.
• When the scheduler-controlled power function and normal or smart preallocation are enabled, prediction of UE selection helps increase throughput of cell center UEs
with large amounts of UL data.
• Active scheduling of UL signaling helps increase the E-RAB setup success rate and the RRC connection reestablishment success rate, and slightly improves other
control-plane KPIs.
• When the CellUlschAlgo.PuschDtxSchStrategy parameter is set to EN_ADAPTIVE_RETX, the UL RBLER is slightly higher than when it is set to ADAPTIVE_RETX or
NEW_TX.
• After DL AMBR control over non-GBR services is enabled:
◾ In multi-user scenarios, the larger the value of the CellDlschAlgo.AmbrCtrlTcycle parameter is, the sooner small-packet services of DL AMBR-restricted UEs
are scheduled. The scheduling wait time is reduced and user-perceived DL data rates increase more noticeably.
◾ If the CellDlschAlgo.AmbrCtrlTcycle is set to a large value, single-user TCP packet injection may cause the TCP service sending window to become
unstable. As a result, the incoming traffic volume is insufficient and UE throughput decreases.
◾ When the CellDlschAlgo.AmbrCtrlTcycle parameter is set to AMBR_1000_MS(AMBR_1000_MS), DL AMBR control does not take effect.
• Delayed scheduling of DL RLC status reports increases user-perceived DL data rates at major incidents in which PDCCH CCE resources are insufficient.
8.11 LOFD-001109 DL Non-GBR Packet Bundling
System Capacity
For a cell with insufficient PDCCH resources but sufficient PDSCH resources, enabling this feature enhances utilization of control channel resources and improves the
distribution of scheduling wait time for downlink packets while meeting the QoS requirements.
Network Performance
No impact.
8.12 LOFD-110205 Traffic Model Based Performance Optimization
System Capacity
• Impact on the downlink
Enabling this feature in the downlink does not have significant impact on the system capacity. The cell throughput remains roughly the same.
• Impact on the uplink
Enabling this feature in the uplink does not have significant impact on the system capacity. The cell throughput remains roughly the same. In uplink heavy-load
scenarios (for example, the PRB usage is greater than 90% and the CCE usage is greater than 65%), this feature may increase UL cell throughput due to the fact that
UEs in or near the cell center have more opportunities to be scheduled by the eNodeB.
Network Performance
This feature raises the scheduling priorities of users using only small-packet services with favorable channel quality. If PRB usage is greater than 60%, this feature improves the
spectral efficiency and enables the eNodeB to use high MCS indexes for data transmission, reducing cell PRB usage by around 2%.
• Impact on the downlink
In scenarios with a relatively heavy traffic load (for example, PRB usage greater than 60%), enabling this feature in the downlink helps to raise the downlink perceived
data rate by 5% to 20%. For details about the method of monitoring DL user-perceived data rates, see 10.8 Performance Monitoring.
In heavy-load scenarios (for example, PRB usage higher than 80%), the values of the counters L.Traffic.DL.PktDelay.Time.QCI.1 to L.Traffic.DL.PktDelay.Time.QCI.9
might increase, but the value of L.Thrp.Time.DL.RmvLastTTI might decrease.
Besides, in heavy-load scenarios, the values of the counters L.RLC.FirstPacketDelay.NonGBR.Index0 to L.RLC.FirstPacketDelay.NonGBR.Index4 might increase.
Since some users near the cell center and users with little amount of data in the RLC buffer constantly have higher priority in scheduling, the delay of the first packet for
other users will increase.
• Impact on the uplink
In scenarios with a relatively heavy traffic load (for example, PRB usage greater than 60%), enabling this feature in the uplink helps to raise the uplink perceived data
rate by 5% to 20%. For details about the method of monitoring UL user-perceived data rates, see 12.5 Performance Monitoring.
There is a high probability that this feature:
• Reduces the number of online synchronization users and the average number of scheduled users per TTI.
This feature accelerates service data transmission of users.
• Decreases the number of TTIs for UEs in active DRX mode and increases the number of TTIs for UEs in dormant DRX mode.
After transmitting service data, UEs promptly exit the synchronization state or enter the dormant state.
In packet injection scenarios, this feature may affect user fairness during RB allocation.
8.13 LBFD-121102 eRAN12.1 Introduction Package
System Capacity
No impact.
Network Performance
• PAMC
This function increases the UL IBLER by 0%–40%, but it improves user-perceived UL throughput by 5%–15%.
• Efficiency improvement for adaptive DL HARQ
◾ This function efficiently utilizes HARQ combining gains in heavily loaded cells, reduces the number of PRBs used for retransmissions, and therefore increases
user-perceived DL data rates.
◾ Increasing the TBS index for retransmissions lifts the demodulation threshold, which may cause the DL RBLER to rise. However, when interference is
present, this function reduces the number of PRBs used for retransmissions and therefore lowers overall interference. As a result, the DL RBLER may
decrease.
◾ This function sets aside a number of PRBs, which would have been allocated for retransmissions, for initial transmissions. This may increase the number of
initial transmissions and therefore reduce average DL cell throughput.
The larger the value of the CellDlschAlgo.DlFirstHarqTxTbsIncNum parameter (which specifies the amount of the increase in the TBS index for the first DL HARQ
retransmission), the greater the gain in user-perceived DL data rates in heavily loaded cells. However, the DL RBLER may rise.
• Flexible target IBLER adaptation
This function increases user-perceived DL data rates, but it may cause the DL IBLER and RBLER to rise.
• Adaptive compensation for the initial value of CQI adjustment
This function increases user-perceived DL data rates, but it may cause the DL IBLER and RBLER to rise.
9
Engineering Guidelines for Basic DL Scheduling Features
This chapter provides engineering guidelines for basic DL scheduling features. The following features are not described in this chapter because they are enabled by default and
do not involve configurable parameters:
• LBFD-001006 AMC
• LBFD-002005 DL Asynchronous HARQ
9.1 When to Use
9.1.1 LBFD-002025 Basic Scheduling
The basic scheduling policies are Max C/I, PF, and RR. The following are suggestions for selecting scheduling policies:
• To achieve the maximum system capacity, use the Max C/I policy.
This policy prioritizes UEs with better channel quality. The Max C/I policy achieves high spectral efficiency but does not ensure QoS or scheduling fairness for UEs.
• To achieve a balance between system capacity and scheduling fairness, use the PF policy.
This policy is a tradeoff between Max C/I and RR, but does not meet QoS requirements of UEs.
• To achieve scheduling fairness, use the RR policy.
This policy schedules each UE the same number of times, but results in low system capacity.
9.1.2 LBFD-060103 Enhanced DL Frequency Selective Scheduling
There are two DL resource allocation modes: frequency diversity scheduling and frequency selective scheduling. Frequency diversity scheduling is used by default.
Frequency selective scheduling considers the differences in channel quality for UEs, thereby bringing scheduling gains.
You are advised to enable fast decisions on DL frequency selective scheduling after enabling DL frequency selective scheduling. This fast decision function shortens the period
of a frequency selective scheduling decision and enables fast reporting of Doppler measurements. In this way, the process of entering DL frequency selective scheduling for lowspeed UEs is accelerated, improving DL spectral efficiency.
In hotspots where UEs move at a low speed, such as stadiums and business districts, select the FreqSelJudgeIgnorDopplerSwitch option of the DL schedule switch
parameter to eliminate measurement errors, further increasing the proportion of UEs entering DL frequency selective scheduling. In cells serving both high- and low-speed UEs,
you are advised to deselect the FreqSelJudgeIgnorDopplerSwitch option of the DL schedule switch parameter.
You are advised to enable the PDCCH symbol adaptation function after enabling DL frequency selective scheduling. For details about setting the PDCCH symbol adaptation
function, see Physical Channel Resource Management Feature Parameter Description.
DL frequency selective scheduling is not recommended if UEs are moving at a high speed or work on non-fading channels.
9.1.3 LBFD-070102 MBR>GBR Configuration
Activate this feature only when the rate-adaptive GBR services are to be deployed. (The rates range from the GBR to the MBR.)
9.1.4 LBFD-070106 PDSCH Efficiency Improvement
The PDCCH and PDSCH resource balancing function is recommended when the following conditions are met:
• The number of UEs in RRC_CONNECTED mode is large. For example, the number is greater than 200.
• PDCCH congestion occurs. For example, the PDCCH CCE usage is greater than 70%.
• The PDSCH resource usage is low. For example, the DL PRB usage is less than 80%.
In light-load wide-coverage scenarios in areas such as suburbs, deserts, and oceans, it is recommended that adaptive power allocation for cell-edge UEs be enabled.
9.2 Required Information
None
9.3 Planning
None
9.4 Deploying Basic Scheduling
9.4.1 Requirements
Operating Environment
• Macro eNodeB
N/A
• Micro eNodeB
RB blocking of the micro eNodeB must be used together with frequency selective scheduling of the macro eNodeB.
Transmission Networking
N/A
License
N/A
9.4.2 Precautions
None
9.4.3 Data Preparation
This section describes the data that you need to collect for setting parameters. Required data is data that you must collect for all scenarios. Collect scenario-specific data when
necessary for a specific feature deployment scenario.
9.4.3.1 Required Data
The following table describes the parameter that must be set in a CellDlschAlgo MO to specify the DL scheduling policy.
Parameter Name
Parameter ID
Setting Notes
Downlink scheduling Strategy
CellDlschAlgo.DlschStrategy
Select Max C/I, RR, or PF as a basic scheduling policy.
9.4.3.2 Scenario-specific Data
9.4.3.2.1 DL HARQ Retransmission
The following table describes the parameter that must be set in a CellDlschAlgo MO to specify the maximum number of DL HARQ transmissions.
Parameter Name
Parameter ID
Setting Notes
Parameter Name
Parameter ID
Setting Notes
Downlink HARQ Maximum
Transmission Number
CellDlschAlgo. DlHarqMaxTxNum
This parameter specifies the maximum number of HARQ transmissions in the DL.
The default value is 5.
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure efficiency improvement for adaptive DL HARQ.
Parameter Name
Parameter ID
Setting Notes
CQI Adjust Algorithm Switch
CellAlgoSwitch.CqiAdjAlgoSwitch
You are advised to select the PreciseMcsAdaptSwitch
(PreciseMcsAdaptSwitch) option in heavy traffic scenarios where DL PRB usage
exceeds 50% and DL IBLER is greater than 9% and less than 30%.
The following table describes the parameter that must be set in a CellDlschAlgo MO to specify the amount of the increase in the TBS index for the first DL HARQ
retransmission.
Parameter Name
Parameter ID
Setting Notes
DL First HARQ Tx TBS Index
Increase Num
CellDlschAlgo. DlFirstHarqTxTbsIncNum This parameter specifies the amount of the increase in the TBS index for the first
DL HARQ retransmission.
The default value is 0.
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure the function of increasing the number of RBs to lower the TBS index for DL
HARQ retransmissions.
Parameter Name
Parameter ID
Setting Notes
CQI Adjust Algorithm Switch
CellAlgoSwitch.CqiAdjAlgoSwitch
To reduce the packet loss rate of voice services and improve user experience with
voice services in the cell, you are advised to select the
DlRetxTbsIndexAdjOptSwitch(DlRetxTbsIndexAdjOptSwitch) option of this
parameter. However, if this option is selected, DL throughput of data services in
the cell may decrease.
The default value is recommended.
When the maximum number of DL HARQ retransmissions retains the default
value, DL throughput decreases slightly. The smaller the maximum number of DL
HARQ retransmissions, the greater the DL throughput loss.
9.4.3.2.2 Static MCS Timer for Handovers
The following table describes the parameter that must be set in a CellDlschAlgo MO to specify the duration within which the eNodeB uses an MCS with a low index for
scheduling before and after handovers.
Parameter Name
Parameter ID
Setting Notes
Handover UE Static MCS
Scheduling Timer
CellDlschAlgo.HoStaticMcsTimer
This parameter specifies a period of time during which an MCS with a small index is
used for DL scheduling before and after a handover. The eNodeB starts this timer
when it determines that the UE enters a handover area or has been handed over to
the target cell. After the timer expires, DL scheduling uses an MCS selected based
on the adjusted CQI.
If the timer is set to 0 ms, DL scheduling always uses an MCS selected based on
the adjusted CQI for handovers.
9.4.3.2.3 RB Blocking at Micro eNodeBs
In macro-micro coordination scenarios, RB blocking must be enabled on the micro eNodeB to improve service experience of users in macro cells experiencing interference from
the micro eNodeB. The blocking results in slight deterioration in user experience in the micro cell.
The following table describes the parameter that must be set in a CellDlschAlgo MO to configure RB blocking on a micro eNodeB.
Parameter Name
Parameter ID
Setting Notes
Micro Rb Block Ratio
CellDlschAlgo.MicRbBlockRatio
This parameter specifies the ratio of blocked DL RBs to total DL RBs in the
micro cell. (The parameter value is expressed in percentage.) A larger value of
this parameter results in higher DL throughput in the macro cell but lower DL
throughput in the micro cell. A smaller value of this parameter indicates lower
DL throughput in the macro cell but higher DL throughput in the micro cell.
In macro-micro coordination scenarios, increase the value of this parameter to
improve service experience of users experiencing interference from the micro
eNodeB in the macro cell at the cost of decreased user experience in the
micro cell.
• In common scenarios, the default value 0 is recommended.
• If the micro eNodeB is deployed near the center of the macro cell and
does not take over many UEs from the macro cell, the value 24 is
recommended.
9.4.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Setting the DL scheduling policy
Run the MOD CELLDLSCHALGO command with the Downlink scheduling Strategy parameter specified.
• Setting the maximum number of DL HARQ retransmissions
Run the MOD CELLDLSCHALGO command with the Downlink HARQ Maximum Transmission Number parameter specified.
• Enabling efficiency improvement for adaptive DL HARQ
◾ Run the MOD CELLALGOSWITCH command with the PreciseMcsAdaptSwitch(PreciseMcsAdaptSwitch) option of the CQI Adjust Algorithm Switch
parameter selected.
◾ Run the MOD CELLDLSCHALGO command with the DL First HARQ Tx TBS Index Increase Num parameter specified.
• Enabling the function of increasing the number of RBs to lower the TBS index for DL HARQ retransmissions
Run the MOD CELLALGOSWITCH command with the DlRetxTbsIndexAdjOptSwitch option of the CQI Adjust Algorithm Switch parameter selected.
• Setting the static MCS timer for handovers
Run the MOD CELLDLSCHALGO command with the Handover UE Static MCS Scheduling Timer parameter specified.
• Setting the percentage of blocked RBs
Run the MOD CELLDLSCHALGO command with the Micro Rb Block Ratio parameter specified.
MML Command Examples
• Setting the DL scheduling policy to PF
MOD CELLDLSCHALGO: LOCALCELLID=0, DLSCHSTRATEGY=DLSCH_PRI_TYPE_PF;
• Setting the maximum number of DL HARQ retransmissions to 5
MOD CELLDLSCHALGO: LOCALCELLID=0, DLHARQMAXTXNUM=5;
• Enabling efficiency improvement for adaptive DL HARQ and setting the amount of the increase in the TBS index for the first DL HARQ retransmission to 3
MOD CELLALGOSWITCH:LOCALCELLID=0,CQIADJALGOSWITCH=PreciseMcsAdaptSwitch-1;
MOD CELLDLSCHALGO:LOCALCELLID=0,DLFIRSTHARQTXTBSINCNUM=3;
• Enabling the function of increasing the number of RBs to lower the TBS index for DL HARQ retransmissions
MOD CELLALGOSWITCH: LOCALCELLID=0, CQIADJALGOSWITCH=DlRetxTbsIndexAdjOptSwitch-1;
• Setting the static MCS timer for handovers
MOD CELLDLSCHALGO: LOCALCELLID=0, HOSTATICMCSTIMER=60;
• Setting the percentage of blocked RBs to 24%
MOD CELLDLSCHALGO: LOCALCELLID=0, MICRBBLOCKRATIO=24;
9.4.5 Activation Observation
This section uses a cell with 20 MHz bandwidth and commercial UEs as an example to describe how to verify the activation of DL scheduling.
Observing Max C/I for DL Scheduling
To observe whether Max C/I has been activated for DL scheduling, perform the following steps:
1. Enable two UEs to access a cell. Perform DL packet injection on the default bearer of each UE to ensure that the DL cell throughput reaches its maximum.
2. On the U2000 client, start channel quality monitoring, MCS-based count monitoring, and throughput monitoring on each UE. The following are methods for starting
these tasks:
• To start channel quality monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > Quality of Channel Monitoring.
• To start MCS-based count monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > MCS Count Monitoring.
• To start throughput monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose LTE >
User Performance Monitoring > Throughput Monitoring.
3. Adjust the locations of the two UEs in the cell so that UE 1 experiences good DL channel quality and UE 2 experiences poor DL channel quality. Check the DL
channel quality monitoring results for each UE. For example, the CQI for UE 1 is 15, and the CQI for UE 2 is 8.
4. Check the MCS-based count monitoring results for the number of DL RBs allocated to each UE. Then check the throughput monitoring results for the DL throughput of
each UE. If UE 1 occupies a majority of the total DL cell throughput and has been allocated more RBs than UE 2, Max C/I has been activated successfully.
Observing RR for DL Scheduling
To observe whether RR has been activated for DL scheduling, perform the following steps:
1. Enable two UEs to access a cell in the cell center. Perform a DL service on the default bearer of each UE.
2. On the U2000 client, start channel quality monitoring and MCS-based count monitoring on each UE. The following are methods for starting these tasks:
• To start channel quality monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > Quality of Channel Monitoring.
• To start MCS-based count monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > MCS Count Monitoring.
3. Check the DL channel quality monitoring results for each UE. For example, the CQI for both UEs is 15.
4. Check the MCS-based count monitoring results for the number of times each UE is scheduled in the DL. If the results are approximately the same for both UEs, RR
has been activated successfully.
Observing PF for DL Scheduling
To observe whether PF has been activated for DL scheduling, perform the following steps:
1. Enable two UEs to access a cell. Perform a DL service on the default bearer of each UE.
2. On the U2000 client, start channel quality monitoring and MCS-based count monitoring on each UE. The following are methods for starting these tasks:
• To start channel quality monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > Quality of Channel Monitoring.
• To start MCS-based count monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > MCS Count Monitoring.
3. Adjust the locations of the two UEs in the cell so that UE 1 experiences good DL channel quality and UE 2 experiences poor DL channel quality. Check the channel
quality monitoring results for the DL channel quality of each UE. For example, the CQI for UE 1 is 15, and the CQI for UE 2 is 8.
4. Check the MCS-based count monitoring results for the number of DL RBs allocated to each UE. If the results are approximately the same for both UEs, PF has been
activated successfully.
9.4.6 Reconfiguration
None
9.4.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Setting the maximum number of DL HARQ retransmissions
Run the MOD CELLDLSCHALGO command with the Downlink HARQ Maximum Transmission Number parameter specified.
• Disabling efficiency improvement for adaptive DL HARQ
Run the MOD CELLALGOSWITCH command with the PreciseMcsAdaptSwitch(PreciseMcsAdaptSwitch) option of the CQI Adjust Algorithm Switch parameter
deselected.
• Disabling the function of increasing the number of RBs to lower the TBS index for DL HARQ retransmissions
Run the MOD CELLALGOSWITCH command with the DlRetxTbsIndexAdjOptSwitch option of the CQI Adjust Algorithm Switch parameter deselected.
• Setting the percentage of blocked RBs
Run the MOD CELLDLSCHALGO command with the Micro Rb Block Ratio parameter specified.
MML Command Examples
• Setting the maximum number of DL HARQ retransmissions to 1
MOD CELLDLSCHALGO: LOCALCELLID=0, DLHARQMAXTXNUM=1;
• Disabling efficiency improvement for adaptive DL HARQ
MOD CELLALGOSWITCH:LOCALCELLID=0,CQIADJALGOSWITCH=PreciseMcsAdaptSwitch-0;
• Disabling the function of increasing the number of RBs to lower the TBS index for DL HARQ retransmissions
MOD CELLALGOSWITCH: LOCALCELLID=0, CQIADJALGOSWITCH=DlRetxTbsIndexAdjOptSwitch-0;
• Disabling RB Blocking
MOD CELLDLSCHALGO: LOCALCELLID=0, MICRBBLOCKRATIO=0;
9.5 Deploying Enhanced DL Frequency Selective Scheduling
9.5.1 Requirements
There is no requirement for the operating environment, transmission networking, and license.
9.5.2 Precautions
Online reconfiguration of DL frequency selective scheduling is not supported. UEs need to access the network again when the status of the switch for DL frequency selective
scheduling is changed.
9.5.3 Data Preparation
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure DL frequency selective scheduling.
Table 9-1 Parameter that must be set in a CellAlgoSwitch MO
Parameter Name
Parameter ID
Setting Notes
DL schedule switch
CellAlgoSwitch.DlSchSwitch
The FreqSelSwitch option of this parameter determines whether to enable
frequency selective scheduling. If this option is selected, data is transmitted
on the frequency band of favorable channel quality. It is recommended that
the FreqSelSwitch option be deselected.
If the FreqSelSwitch option is selected for a low-mobility hotspot cell, it is
recommended that the FreqSelJudgeIgnorDopplerSwitch option also be
selected for the cell.
The following table describes the parameters that must be set in a CellDlschAlgo MO to configure the period of determining frequency selective scheduling, the period of
triggering aperiodic CQI reporting in frequency selective scheduling, and the validity period of subband CQIs aperiodically reported by UEs in frequency selective scheduling.
Table 9-2 Parameters that must be set in a CellDlschAlgo MO
Parameter Name
Parameter ID
Setting Notes
Frequency Select Judge Period
CellDlschAlgo.FreqSelJudgePeriod
If the FreqSelSwitch option is selected, it is recommended that this
parameter be set to 1.
FS UE Aperiodic CQI Triggering
Period
CellDlschAlgo.FSUEAperCQITrigPeriod
If the FreqSelSwitch option is selected, it is recommended that this
parameter be set to 2.
FS UE Aperiodic Subband CQI
Validity Period
CellDlschAlgo.FSUESbCQIValidityPeriod
If the FreqSelSwitch option is selected, it is recommended that this
parameter be set to 10.
The following table describes the parameters that must be set in a CellUlschAlgo MO to specify the Doppler measurement reporting mode and the transmission mode of
aperiodic CQI reports.
Table 9-3 Parameters that must be set in a CellUlschAlgo MO
Parameter Name
Parameter ID
Setting Notes
Doppler Algo Switch
CellUlschAlgo.DopAlgoSwitch
If the CellDlschAlgo.FreqSelJudgePeriod parameter is set to a value less than
10, it is recommended that the FastReportDopSwitch option be selected.
Parameter Name
Parameter ID
Setting Notes
Aperiodic CSI Uplink Transmit Mode
CellUlschAlgo.AperiodicCsiUlTxMode
The value CsiWiUlService(CsiWiUlService) is recommended in enhanced
DL frequency selective scheduling scenarios, and the value CsiOnly
(CsiOnly) is recommended in other scenarios.
9.5.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
1. Run the MOD CELLALGOSWITCH command to enable DL frequency selective scheduling.
2. Run the MOD CELLDLSCHALGO command to set the interval at which the eNodeB evaluates frequency selective scheduling.
3. Run the MOD CELLULSCHALGO command to set the fast Doppler measurement reporting switch and the mode of transmitting aperiodic CQI reports.
4. Run the MOD CELLDLSCHALGO command to set the period of triggering aperiodic CQI reporting in frequency selective scheduling and the validity period of
subband CQIs aperiodically reported by UEs in frequency selective scheduling.
MML Command Examples
//Enabling DL frequency selective scheduling
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=FreqSelSwitch-1&FreqSelJudgeIgnorDopplerSwitch-1;
//Setting the evaluation interval to 1s
MOD CELLDLSCHALGO: LOCALCELLID=0, FREQSELJUDGEPERIOD=1;
//Turning on the fast Doppler measurement reporting switch and setting the mode of transmitting aperiodic CQI reports
MOD CELLULSCHALGO: LOCALCELLID=0, DOPALGOSWITCH=FastReportDopSwitch-1, APERIODICCSIULTXMODE=CsiWiUlService;
//Setting the period of triggering aperiodic CQI reporting in frequency selective scheduling to 10 ms and the validity period of subband CQI
s aperiodically reported by UEs in frequency selective scheduling to 20 ms
MOD CELLDLSCHALGO:LOCALCELLID=0,FSUEAPERCQITRIGPERIOD=10,FSUESBCQIVALIDITYPERIOD=20;
9.5.5 Activation Observation
This section uses a cell with a bandwidth of 20 MHz and commercial UEs as an example to describe how to verify the activation of DL frequency selective scheduling.
Observing DL Frequency Selective Scheduling (Using Performance Counters)
To observe whether DL frequency selective scheduling has taken effect, check the value of L.ChMeas.PRB.DL.FSS.Avg. If this counter value is not 0, DL frequency selective
scheduling has taken effect. To observe whether DL frequency selective scheduling has produced gains, calculate the average number of bits included in each RB. If this
average number increases, DL frequency selective scheduling has produced gains.
Average number of bits included in each RB = L.Thrp.bits.DL/ L.ChMeas.PRB.DL.Used.Avg/counter_period
In the formula, counter_period indicates the measurement period for L.Thrp.bits.DL in unit of ms.
Table 9-4 Counters related to DL frequency selective scheduling
Counter Name
Description
L.ChMeas.PRB.DL.FSS.Avg
Average number of PRBs allocated for downlink frequency selective scheduling
L.Thrp.bits.DL
Total downlink traffic volume for PDCP SDUs in a cell
L.ChMeas.PRB.DL.Used.Avg
Average number of PRBs used on the PDSCH
Observing DL Frequency Selective Scheduling (Using the U2000)
To observe whether DL frequency selective scheduling has taken effect, perform the following steps:
1. Enable a UE to access a cell. Ensure the UE's DL channel is a fading channel, which is a prerequisite for DL frequency selective scheduling to take effect. If this
activation observation test is to be performed in the lab, use a channel simulator in the DL.
2. On the U2000 client, start a cell RB usage monitoring task for the UE.
Choose Monitor > Signaling Trace > Signaling Trace Management. In the navigation tree, choose Cell Performance Monitoring > Usage of RB Monitoring.
3. Check the number of RBs used in DL frequency selective scheduling. Figure 9-1 shows an example. If the value of Downlink Freq Select Used RB Num is not zero,
DL frequency selective scheduling has taken effect.
Figure 9-1 RB usage monitoring for downlink frequency selective scheduling
9.5.6 Reconfiguration
None
9.5.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Disabling DL frequency selective scheduling
Run the MOD CELLALGOSWITCH command with the FreqSelSwitch option of the DL schedule switch parameter deselected.
• Disabling the function of ignoring Doppler measurements in DL frequency selective scheduling
Run the MOD CELLALGOSWITCH command with the FreqSelJudgeIgnorDopplerSwitch option of the DL schedule switch parameter deselected.
• Disabling fast evaluation of DL frequency selective scheduling
Run the MOD CELLDLSCHALGO command with the Frequency Select Judge Period parameter specified.
Run the MOD CELLULSCHALGO command with the FastReportDopSwitch option of the Doppler Algo Switch parameter deselected.
• Setting transmission mode for aperiodic CQI reporting
Run the MOD CELLULSCHALGO command with the Aperiodic CSI Uplink Transmit Mode parameter specified.
• Setting the period of triggering aperiodic CQI reporting in frequency selective scheduling and the validity period of subband CQIs aperiodically reported by UEs in
frequency selective scheduling
Run the MOD CELLDLSCHALGO command to set the period of triggering aperiodic CQI reporting in frequency selective scheduling and the validity period of subband
CQIs aperiodically reported by UEs in frequency selective scheduling.
MML Command Examples
• Disabling DL frequency selective scheduling
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=FreqSelSwitch-0;
• Disabling the function of ignoring Doppler measurements in DL frequency selective scheduling
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=FreqSelJudgeIgnorDopplerSwitch-0;
• Disabling fast evaluation of DL frequency selective scheduling
//Setting the decision period to 10s
MOD CELLDLSCHALGO: LOCALCELLID=0, FREQSELJUDGEPERIOD=10;
//Disabling fast reporting of Doppler measurements
MOD CELLULSCHALGO: LOCALCELLID=0, DOPALGOSWITCH=FastReportDopSwitch-0;
• Setting transmission mode for aperiodic CQI reporting
MOD CELLULSCHALGO: LOCALCELLID=0, APERIODICCSIULTXMODE=CsiOnly;
• Setting the period of triggering aperiodic CQI reporting in frequency selective scheduling and the validity period of subband CQIs aperiodically reported by UEs in
frequency selective scheduling
MOD CELLDLSCHALGO:LOCALCELLID=0,FSUEAPERCQITRIGPERIOD=2,FSUESBCQIVALIDITYPERIOD=10;
9.6 Deploying MBR>GBR Configuration
9.6.1 Requirements
There is no requirement for the operating environment, transmission networking, and license.
9.6.2 Precautions
None
9.6.3 Data Preparation
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure the MBR>GBR Configuration feature.
Parameter Name
Parameter ID
Setting Notes
DL schedule switch
CellAlgoSwitch.DlSchSwitch
The DlMbrCtrlSwitch option of the parameter specifies whether to enable the
MBR>GBR Configuration feature.
9.6.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
Run the MOD CELLALGOSWITCH command with the DlMbrCtrlSwitch option of the DL schedule switch parameter selected.
MML Command Examples
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=DlMbrCtrlSwitch-1;
9.6.5 Activation Observation
This section describes the activation observation procedure using a commercial UE in a cell with a 20 MHz bandwidth.
1. Provision a DL GBR service for one UE. Set the GBR and MBR to 20 Mbit/s and 40 Mbit/s, respectively. Initiate a service with the data rate greater than the MBR on
the UE.
2. Start throughput monitoring on the U2000: Choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose LTE
> User Performance Monitoring > Throughput Monitoring.
3. Start RB usage monitoring on the U2000: Choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose LTE >
Cell Performance Monitoring > Usage of RB Monitoring.
4. Disable the MBR>GBR Configuration feature. The GBR service rate approaches the GBR (20 Mbit/s) even when the cell has vacant RBs, as shown in Figure 9-2.
Figure 9-2 Example of RB usage and throughput monitoring (MBR>GBR Configuration disabled)
5. Enable the MBR>GBR Configuration feature. The GBR service rate can range from the GBR to the MBR when the cell has vacant RBs. See Figure 9-3.
Figure 9-3 Example of RB usage and throughput monitoring (MBR>GBR Configuration enabled)
9.6.6 Reconfiguration
None
9.6.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
Run the MOD CELLALGOSWITCH command with the DlMbrCtrlSwitch option of the DL schedule switch parameter deselected.
MML Command Examples
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=DlMbrCtrlSwitch-0;
9.7 Deploying PDSCH Efficiency Improvement
9.7.1 Requirements
To use adaptive power allocation for cell-edge UEs, ensure that the eNodeB type is macro and there is no strong inter-RAT interference.
9.7.2 Precautions
None
9.7.3 Data Preparation
The following table describes the parameters that must be set in a CellDlschAlgo MO to configure the function of MCS selection with prioritized RBs.
Parameter Name
Parameter ID
Setting Notes
RB Priority MCS Select Strategy
CellDlschAlgo.RBPriMcsSelectStrategy
The value MULTIUSR_LOWMCSLIMIT_STRATEGY
(Multiple User Lower MCS Limited Strategy) is
recommended.
RB Priority MCS Select Ratio
Threshold
CellDlschAlgo.RBPriMcsSelectRatioThd
Set this parameter to its recommended value.
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure MCS selection for transmission of small-amount data.
Parameter Name
Parameter ID
DL schedule switch
CellAlgoSwitch.DlSchSwitch
Setting Notes
• It is recommended that the
SmallPktMcsSelectAlgoSw
(SmallPktMcsSelectAlgoSw) option of this
parameter be deselected if the
CellDlschAlgo.RbgAllocStrategy parameter is
set to ROUND_DOWN(Round Down).
• It is recommended that the
SmallPktMcsSelectAlgoSw
(SmallPktMcsSelectAlgoSw) option of this
parameter be selected if the
CellDlschAlgo.RbgAllocStrategy parameter is
set to ROUND_UP(Round Up) or ADAPTIVE
(Adaptive).
The following table describes the parameters that must be set in a CellDlschAlgo MO to configure the function of PDCCH and PDSCH resource balancing.
NOTE:
PDCCH and PDSCH resource balancing takes effect only when the values of the CellDlschAlgo.DataThdInPdcchPdschBal and CellDlschAlgo.UeNumThdInPdcchPdschBal
parameters are both greater than 0.
Parameter Name
Parameter ID
Setting Notes
Data Threshold In Pdcch And Pdsch CellDlschAlgo.DataThdInPdcchPdschBal
Balance
It is recommended that this parameter be set to 36000 in heavy traffic
scenarios.
Ue Num Threshold In Pdcch And
Pdsch Balance
It is recommended that this parameter be set to 300 in heavy traffic
scenarios.
CellDlschAlgo.UeNumThdInPdcchPdschBal
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure adaptive power allocation for cell-edge UEs.
Parameter Name
Parameter ID
Setting Notes
Downlink Cell Coverage
Enhancement Switch
CellAlgoSwitch.CellDlCoverEnhanceSwitch
It is recommended that the AdptCellEdgePwrAllocSw
(AdptCellEdgePwrAllocSw) option of this parameter be selected in
light-load wide-coverage scenarios.
9.7.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Enabling MCS selection with prioritized RBs
Run the MOD CELLDLSCHALGO command with the RB Priority MCS Select Strategy and RB Priority MCS Select Ratio Threshold parameters specified.
• Enabling MCS selection for transmission of small-amount data
Run the MOD CELLALGOSWITCH command with the SmallPktMcsSelectAlgoSw option of the DL schedule switch parameter selected.
• Enabling PDCCH and PDSCH resource balancing
Run the MOD CELLDLSCHALGO command with the Data Threshold In Pdcch And Pdsch Balance and Ue Num Threshold In Pdcch And Pdsch Balance
parameters specified.
• Enabling adaptive power allocation for cell-edge UEs
Run the MOD CELLALGOSWITCH command with the AdptCellEdgePwrAllocSw option of the Downlink Cell Coverage Enhancement Switch parameter selected.
MML Command Examples
• Configuring the function of MCS selection with prioritized RBs with the RB Priority MCS Select Strategy parameter set to MULTIUSR_LOWMCSLIMIT_STRATEGY
and the RB Priority MCS Select Ratio Threshold parameter set to 10
MOD CELLDLSCHALGO:LOCALCELLID=0,RBPRIMCSSELECTSTRATEGY=MULTIUSR_LOWMCSLIMIT_STRATEGY,RBPRIMCSSELECTRATIOTHD=10;
• Enabling MCS selection for transmission of small-amount data
MOD CELLALGOSWITCH:LOCALCELLID=0,DLSCHSWITCH=SmallPktMcsSelectAlgoSw-1;
• Enabling PDCCH and PDSCH resource balancing
MOD CELLDLSCHALGO:LOCALCELLID=0,DATATHDINPDCCHPDSCHBAL=36000,UENUMTHDINPDCCHPDSCHBAL=300;
• Enabling adaptive power allocation for cell-edge UEs
MOD CELLALGOSWITCH:LOCALCELLID=0,CellDlCoverEnhanceSwitch=AdptCellEdgePwrAllocSw-1;
9.7.5 Activation Observation
Observing MCS Selection with Prioritized RBs
1. Before enabling MCS selection with prioritized RBs, check the DL IBLER and the DL average MCS.
2. Check the DL IBLER and the DL average MCS after enabling MCS selection with prioritized RBs. If the two values decrease, MCS selection with prioritized RBs has
taken effect.
IBLER = (L.Traffic.DL.SCH.QPSK.ErrTB.Ibler + L.Traffic.DL.SCH.16QAM.ErrTB.Ibler + L.Traffic.DL.SCH.64QAM.ErrTB.Ibler)/(L.Traffic.DL.SCH.QPSK.TB +
L.Traffic.DL.SCH.16QAM.TB + L.Traffic.DL.SCH.64QAM.TB)
Average MCS index for the DL = (L.ChMeas.PDSCH.MCS.0 x 0 + L.ChMeas.PDSCH.MCS.1 x 1 + ... + L.ChMeas.PDSCH.MCS.28 x 28)/sum(L.ChMeas.PDSCH.MCS.0...
L.ChMeas.PDSCH.MCS.28)
Observing PDCCH and PDSCH Resource Balancing
1. Check the average number of users in the cell.
When the number of users reaches the value of CellDlschAlgo.UeNumThdInPdcchPdschBal and the volume of traffic data to be scheduled on user bearers is greater
than or equal to the value of CellDlschAlgo.DataThdInPdcchPdschBal, the trigger condition for PDCCH and PDSCH resource balancing applies.
2. Check the PDCCH resource utilization.
When the number of OFDM symbols occupied by the PDCCH reaches the maximum and CCE usage reaches around 80%, PDCCH resource congestion occurs.
CCE usage = (L.ChMeas.CCE.CommUsed + L.ChMeas.CCE.ULUsed + L.ChMeas.CCE.DLUsed)/L.ChMeas.CCE.Avail
3. Check the downlink PDSCH resource utilization.
If the RB usage is not high, PDCCH and PDSCH resources are imbalanced in the cell.
RB usage = L.ChMeas.PRB.DL.Used.Avg/L.ChMeas.PRB.DL.Avail
Table 9-5 Counters related to PDCCH and PDSCH resource balancing
Counter Name
Description
L.Traffic.User.Avg
Average number of users in a cell
L.ChMeas.PDCCH.SymNum.1~4
Number of times that the PDCCH occupies x OFDM symbols (x ranging
from 1 to 4)
L.ChMeas.CCE.CommUsed
Number of PDCCH CCEs used for common DCI
L.ChMeas.CCE.ULUsed
Number of PDCCH CCEs used for uplink DCI
L.ChMeas.CCE.DLUsed
Number of PDCCH CCEs used for downlink DCI
L.ChMeas.CCE.Avail
Number of available PDCCH CCEs
L.ChMeas.PRB.DL.Used.Avg
Average number of used PDSCH PRBs
L.ChMeas.PRB.DL.Avail
Number of available downlink PRBs
4. Compare the RB usage within the same period of service time before and after PDCCH and PDSCH resource balancing is enabled. If the RB usage increases, this
function has taken effect.
Observing Adaptive Power Allocation for Cell-Edge UEs
1. Before enabling the function, obtain the percentage of PRBs scheduled for PDSCH transmission using rank 1 and MCSs of indexes 0 to 6. The formula for calculating
the percentage is as follows:
Percentage of PRBs scheduled for PDSCH transmission using rank 1 and MCSs of indexes 0 to 6 = Sum of L.ChMeas.PRB.DL.RANK1.MCS.0 to
L.ChMeas.PRB.DL.RANK1.MCS.6/Sum of L.ChMeas.PRB.DL.RANK1.MCS.0 to L.ChMeas.PRB.DL.RANK1.MCS.28
2. Check that the percentage decreases after the function is enabled. The decrease indicates that the function has taken effect.
9.7.6 Reconfiguration
None
9.7.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Disabling MCS selection with prioritized RBs
Run the MOD CELLDLSCHALGO command with the RB Priority MCS Select Ratio Threshold parameter set to 0.
• Disabling MCS selection for transmission of small-amount data
Run the MOD CELLALGOSWITCH command with the SmallPktMcsSelectAlgoSw option of the DL schedule switch parameter deselected.
• Disabling PDCCH and PDSCH resource balancing
Run the MOD CELLDLSCHALGO command with the Data Threshold In Pdcch And Pdsch Balance and Ue Num Threshold In Pdcch And Pdsch Balance
parameters specified.
• Disabling adaptive power allocation for cell-edge UEs
Run the MOD CELLALGOSWITCH command with the AdptCellEdgePwrAllocSw option of the Downlink Cell Coverage Enhancement Switch parameter
deselected.
MML Command Examples
• Disabling MCS selection with prioritized RBs
MOD CELLDLSCHALGO: LOCALCELLID=0, RBPRIMCSSELECTRATIOTHD=0;
• Disabling MCS selection for transmission of small-amount data
MOD CELLALGOSWITCH:LOCALCELLID=0,DLSCHSWITCH=SmallPktMcsSelectAlgoSw-0;
• Disabling PDCCH and PDSCH resource balancing
MOD CELLDLSCHALGO: LOCALCELLID=0, DATATHDINPDCCHPDSCHBAL=0, UENUMTHDINPDCCHPDSCHBAL=0;
• Disabling adaptive power allocation for cell-edge UEs
MOD CELLALGOSWITCH:LOCALCELLID=0,CellDlCoverEnhanceSwitch=AdptCellEdgePwrAllocSw-0;
9.8 Performance Monitoring
DL Scheduling
In DL scheduling, the features helping improve DL spectral efficiency may cause the value of L.Traffic.ActiveUser.DL.Avg to decrease.
MBR>GBR Configuration
Observe the resource occupation ratio on the PDSCH and throughput of GBR services with different QCIs.
• Calculate the resource occupation ratio on the PDSCH using the following formula:
L.ChMeas.PRB.DL.Used.Avg/L.ChMeas.PRB.DL.Avail
• Observe throughput of GBR services with different QCIs:
◾ L.Thrp.bits.DL.QCI.1
◾ L.Thrp.bits.DL.QCI.2
◾ L.Thrp.bits.DL.QCI.3
◾ L.Thrp.bits.DL.QCI.4
Set GBR and MBR to different values for the to-be-observed GBR bearer in the EPC. If the resource occupation ratio on the PDSCH is low (for example, 50%) and there is a
GBR service whose data rate is greater than the configured GBR, check that the data rate of the GBR service increases after the MBR>GBR Configuration feature is activated.
9.9 Parameter Optimization
N/A
9.10 Possible Issues
N/A
10
Engineering Guidelines for Enhanced DL Scheduling Features
This chapter provides engineering guidelines for the following features:
• LBFD-00101501 CQI Adjustment
• LBFD-00101502 Dynamic Scheduling
• LOFD-001109 DL Non-GBR Packet Bundling
• LOFD-110205 Traffic Model Based Performance Optimization
10.1 When to Use
10.1.1 LBFD-00101501 CQI Adjustment
CQI adjustment is recommended for use.
It is an enhanced feature for DL scheduling. This feature uses a closed-loop MCS adjustment mechanism to correct UE-reported CQIs and combat channel condition changes
during the time between CQI reporting and scheduling. In addition, CQI adjustment enables the DL IBLER to converge on the target value and therefore increases DL
throughput.
DlVarIBLERtargetSwitch controls whether to use adaptive target IBLER values. If this switch is on, the throughput of cell edge users can be increased and the spectral
efficiency of users performing small-TB services can be improved.
The enhanced function of DL target IBLER adaptation increases DL throughput when the channel quality fluctuates or when the proportion of small-packet data transmission is
high. However, this enhanced function may increase the RBLER.
10.1.2 LBFD-00101502 Dynamic Scheduling
You are advised to enable dynamic scheduling to strike a balance between scheduling fairness, cell capacity, and service QoS satisfaction.
10.1.3 LOFD-001109 DL Non-GBR Packet Bundling
DL Non-GBR Packet Bundling applies to scenarios where PDCCH resources are insufficient (for example, the PDCCH CCE usage is approximately greater than 70%) while
PDSCH resources are still available (for example, the DL RB usage is approximately less than 95%).
10.1.4 LOFD-110205 Traffic Model Based Performance Optimization
This feature is recommended when the cell traffic load is high (PRB usage > 60%).
You are advised to enable the Traffic Model Based Performance Optimization feature in the uplink and downlink at the same time. For details about deploying this feature in the
uplink, see 12.4 Deploying the Traffic Model Based Performance Optimization Feature.
10.2 Required Information
None
10.3 Planning
None
10.4 Deploying CQI Adjustment
10.4.1 Requirements
Operating Environment
N/A
Transmission Networking
N/A
License
N/A
10.4.2 Precautions
None
10.4.3 Data Preparation
This section describes the data that you need to collect for setting parameters. Required data is data that you must collect for all scenarios. Collect scenario-specific data when
necessary for a specific feature deployment scenario.
10.4.3.1 Required Data
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure CQI adjustment for a cell.
Parameter Name
Parameter ID
Setting Notes
CQI Adjust Algorithm Switch
CellAlgoSwitch.CqiAdjAlgoSwitch
In common operations, you are advised to select the CqiAdjAlgoSwitch option of
this parameter.
For setting suggestions, see 10.1.1 LBFD-00101501 CQI Adjustment.
10.4.3.2 Scenario-specific Data
10.4.3.2.1 DL Target IBLER Adaptation
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure DL target IBLER adaptation.
Parameter Name
Parameter ID
Setting Notes
CQI Adjust Algorithm Switch
CellAlgoSwitch.CqiAdjAlgoSwitch
If the channel quality fluctuates greatly, you are advised to select the
DlEnVarIblerTargetSwitch(DlEnVarIblerTargetSwitch) option of this
parameter.
To increase the throughput of cell edge UEs and improve the spectral efficiency
for UEs running services of small TBs, you are advised to select the
DlVarIBLERtargetSwitch option of this parameter.
The following table describes the parameters that must be set in a CellDlschAlgo MO to configure flexible target IBLER adaptation.
Parameter Name
Parameter ID
Setting Notes
TBS Index Threshold for Low
Target IBLER
CellDlschAlgo.LowIblerTargetTbsIdxThld Set this parameter to its recommended value.
TBS Index Threshold for High
Target IBLER
CellDlschAlgo.HighIblerTargetTbsIdxThld Set this parameter to its recommended value.
10.4.3.2.2 Optimized CQI Adjustment Value
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure DL CQI adjustment optimization for a cell.
Parameter Name
Parameter ID
Setting Notes
CQI Adjust Algorithm Switch
CellAlgoSwitch.CqiAdjAlgoSwitch
DlCqiAdjDeltaOptSwitch under this parameter specifies whether to use the
optimized method for calculating the CQI adjustment value.
When this switch is set to ON, the DL IBLER convergence and DL throughput are
improved.
It is good practice to set this switch to ON to prevent delayed CQI adjustment due
to a prolonged CQI adjustment period when the cell serves a massive number of
users.
10.4.3.2.3 Step for CQI Adjustment
The following table describes the parameter that must be set in a CellDlschAlgo MO to configure the initial step for CQI adjustment.
Parameter Name
Parameter ID
Setting Notes
CQI Adjustment Initial Step
CellDlschAlgo.CqiAdjInitialStep
This parameter specifies the initial step for the CQI Adjustment feature.
Decreasing the initial step increases the handover success rate and reduces the
DL RBLER, but may reduce DL throughput of UEs in the event of initial access
and handovers. Increasing the initial step may decrease the handover success
rate and raise the DL RBLER, but can increase DL throughput of UEs in the event
of initial access and handovers.
The default value is recommended.
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure CQI adjustment step adaptation.
Parameter Name
Parameter ID
CQI Adjust Algorithm Switch
CellAlgoSwitch.CqiAdjAlgoSwitch
Setting Notes
• The StepVarySwitch option of this parameter specifies whether to
enable variable-step-based CQI adjustment.
The default value is recommended.
• The AdaptiveStepVarySwitch option of this parameter specifies
whether to enable adaptive CQI adjustment step variation.
It is recommended that the AdaptiveStepVarySwitch option be selected
if IBLERs need to approach the target IBLER quickly.
10.4.3.2.4 Initial Value of CQI Adjustment
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure adaptive compensation for the initial value of CQI adjustment.
Parameter Name
Parameter ID
Setting Notes
CQI Adjust Algorithm Switch
CellAlgoSwitch.CqiAdjAlgoSwitch
The PreciseMcsAdaptSwitch(PreciseMcsAdaptSwitch) option of this
parameter specifies whether to enable adaptive compensation for the initial value
of CQI adjustment.
Parameter Name
Parameter ID
Setting Notes
The default value is recommended.
10.4.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Enabling CQI adjustment
Run the MOD CELLALGOSWITCH command with the CqiAdjAlgoSwitch option of the CQI Adjust Algorithm Switch parameter selected.
• Enabling DL target IBLER adaptation
Run the MOD CELLALGOSWITCH command with the DlVarIBLERtargetSwitch option of the CQI Adjust Algorithm Switch parameter selected.
• Enabling the enhanced function of DL target IBLER adaptation
Run the MOD CELLALGOSWITCH command with the DlEnVarIblerTargetSwitch option of the CQI Adjust Algorithm Switch parameter selected.
• Enabling flexible target IBLER adaptation
Run the MOD CELLDLSCHALGO command with the TBS Index Threshold for Low Target IBLER and TBS Index Threshold for High Target IBLER parameters
specified.
• Enabling DL CQI adjustment optimization
Run the MOD CELLALGOSWITCH command with the DlCqiAdjDeltaOptSwitch option of the CQI Adjust Algorithm Switch parameter selected.
• Setting the initial step for CQI adjustment
Run the MOD CELLDLSCHALGO command with the CQI Adjustment Initial Step parameter specified.
• Enabling adaptive compensation for the initial value of CQI adjustment
Run the MOD CELLALGOSWITCH command with the PreciseMcsAdaptSwitch(PreciseMcsAdaptSwitch) option of the CQI Adjust Algorithm Switch parameter
selected.
• Enabling the function of adaptive CQI adjustment step variation
Run the MOD CELLALGOSWITCH command with the AdaptiveStepVarySwitch option of the CQI Adjust Algorithm Switch parameter selected.
MML Command Examples
//Enabling CQI adjustment
MOD CELLALGOSWITCH: LOCALCELLID=0, CQIADJALGOSWITCH=CqiAdjAlgoSwitch-1;
//Enabling DL target IBLER adaptation
MOD CELLALGOSWITCH: LOCALCELLID=0, CQIADJALGOSWITCH=DlVarIBLERtargetSwitch-1;
//Enabling the enhanced function of DL target IBLER adaptation
MOD CELLALGOSWITCH: LOCALCELLID=0, CQIADJALGOSWITCH=DlEnVarIblerTargetSwitch-1;
//Enabling flexible target IBLER adaptation
MOD CELLDLSCHALGO:LOCALCELLID=0,LowIblerTargetTbsIdxThld=21,HighIblerTargetTbsIdxThld=5;
//Enabling optimized CQI adjustment value
MOD CELLALGOSWITCH: LOCALCELLID=0, CQIADJALGOSWITCH=DlCqiAdjDeltaOptSwitch-1;
//Setting the initial step for CQI adjustment
MOD CELLDLSCHALGO: LOCALCELLID=0, CQIADJINITIALSTEP=1;
//Enabling adaptive compensation for the initial value of CQI adjustment
MOD CELLALGOSWITCH:LOCALCELLID=0,CQIADJALGOSWITCH=PreciseMcsAdaptSwitch-1;
//Enabling the function of adaptive CQI adjustment step variation
MOD CELLALGOSWITCH:LOCALCELLID=0,CQIADJALGOSWITCH=AdaptiveStepVarySwitch-1;
10.4.5 Activation Observation
This section describes the procedures for verifying the activation of CQI adjustment. The following examples show test results for commercial UEs in cells with a bandwidth of 20
MHz.
Observing CQI Adjustment (Using Performance Counters)
Observe the counters listed in Table 10-1, and use the following formula to calculate the downlink IBLER. Check that the downlink IBLER approaches the default value 10%.
Table 10-1 Counters related to CQI adjustment
Counter Name
Description
L.Traffic.DL.SCH.QPSK.ErrTB.Ibler
Number of downlink error TBs after initial transmission in QPSK modulation
mode
L.Traffic.DL.SCH.16QAM.ErrTB.Ibler
Number of downlink error TBs after initial transmission in 16QAM modulation
mode
L.Traffic.DL.SCH.64QAM.ErrTB.Ibler
Number of downlink error TBs after initial transmission in 64QAM modulation
mode
L.Traffic.DL.SCH.QPSK.TB
Number of TBs initially transmitted on the downlink SCH in QPSK modulation
mode
L.Traffic.DL.SCH.16QAM.TB
Number of TBs initially transmitted on the downlink SCH in the 16QAM
modulation mode
L.Traffic.DL.SCH.64QAM.TB
Number of TBs initially transmitted on the downlink SCH in the 64QAM
modulation mode
Observing CQI Adjustment (Using the U2000)
1. Enable a UE to access a cell in the cell center.
2. On the U2000 client, start channel quality monitoring and BLER monitoring on the UE. The following are methods for starting these tasks:
• To start channel quality monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree, choose LTE > User
Performance Monitoring > Quality of Channel Monitoring.
• To start BLER monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree, choose LTE > User
Performance Monitoring > BLER Monitoring.
3. Perform DL packet injection on the UE so that the UE is scheduled about 1000 times per second in the DL. At the same time, move the UE gradually to the cell edge.
4. Check the DL channel quality and DL IBLER monitoring results. The CQI is approximately 11, and the value of Downlink IBLER(Permillage) fluctuates around 100,
which means that the DL IBLER converges on the default value 10%. The results indicate that CQI adjustment has been activated.
Observing Target IBLER Adaptation (Using the U2000)
1. Enable a UE to access a cell in the cell center.
2. On the U2000 client, start BLER monitoring on the UE.
a. Choose Monitor > Signaling Trace > Signaling Trace Management.
b. In the navigation tree, choose LTE > User Performance Monitoring > BLER Monitoring.
3. Perform DL packet injection on the UE. At the same time, move the UE gradually to the cell edge. Check the BLER monitoring results. The DL IBLER approaches
30%. The results indicate that target IBLER adaptation has been activated. If the configured initial DL target IBLER is 15%, check whether the DL IBLER approaches
15%. If the DL IBLER approaches 15%, the parameter setting has taken effect.
Observing the Enhanced Function of DL Target IBLER Adaptation (Using the U2000)
1. Enable a UE to access a cell in the cell center.
2. On the U2000 client, start BLER monitoring on the UE.
Choose Monitor > Signaling Trace > Signaling Trace Management. In the navigation tree, choose LTE > User Performance Monitoring > BLER Monitoring.
3. Set DlEnVarIblerTargetSwitch on and set DlVarIBLERtargetSwitch off.
4. Perform DL packet injection on the UE. At the same time, move the UE gradually to the cell edge. Check the BLER monitoring results. The DL IBLER approaches
30%. The results indicate that enhanced target IBLER adaptation has been activated.
10.4.6 Reconfiguration
None
10.4.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Disabling DL CQI adjustment optimization
Run the MOD CELLALGOSWITCH command with the DlCqiAdjDeltaOptSwitch option of the CQI Adjust Algorithm Switch parameter deselected.
• Setting the initial step for CQI adjustment
Run the MOD CELLDLSCHALGO command with the CQI Adjustment Initial Step parameter specified.
• Disabling flexible target IBLER adaptation
Run the MOD CELLDLSCHALGO command with the TBS Index Threshold for Low Target IBLER parameter specified.
• Disabling the enhanced function of DL target IBLER adaptation
Run the MOD CELLALGOSWITCH command with the DlEnVarIblerTargetSwitch option of the CQI Adjust Algorithm Switch parameter deselected.
• Disabling the function of adaptive CQI adjustment step variation
Run the MOD CELLALGOSWITCH command with the AdaptiveStepVarySwitch option of the CQI Adjust Algorithm Switch parameter deselected.
• Disabling DL target IBLER adaptation
Run the MOD CELLALGOSWITCH command with the DlVarIBLERtargetSwitch option of the CQI Adjust Algorithm Switch parameter deselected.
• Disabling adaptive compensation for the initial value of CQI adjustment
Run the MOD CELLALGOSWITCH command with the PreciseMcsAdaptSwitch option of the CQI Adjust Algorithm Switch parameter deselected.
• Disabling CQI adjustment
Run the MOD CELLALGOSWITCH command to disable CQI adjustment.
MML Command Examples
//Disabling DL CQI adjustment optimization
MOD CELLALGOSWITCH: LOCALCELLID=0, CQIADJALGOSWITCH=DlCqiAdjDeltaOptSwitch-0;
//Setting the initial step for CQI adjustment
MOD CELLDLSCHALGO: LOCALCELLID=0, CQIADJINITIALSTEP=0;
//Disabling flexible target IBLER adaptation
MOD CELLDLSCHALGO:LOCALCELLID=0,LowIblerTargetTbsIdxThld=255;
//Disabling the enhanced function of DL target IBLER adaptation
MOD CELLALGOSWITCH: LOCALCELLID=0, CQIADJALGOSWITCH=DlEnVarIblerTargetSwitch-0;
//Disabling the function of adaptive CQI adjustment step variation
MOD CELLALGOSWITCH:LOCALCELLID=0,CQIADJALGOSWITCH=AdaptiveStepVarySwitch-0;
//Disabling DL target IBLER adaptation
MOD CELLALGOSWITCH: LOCALCELLID=0, CQIADJALGOSWITCH=DlVarIBLERtargetSwitch-0;
MOD CELLCQIADJALGO: LOCALCELLID=0, InitDlIblerTarget=10;
//Disabling adaptive compensation for the initial value of CQI adjustment
MOD CELLALGOSWITCH:LOCALCELLID=0,CQIADJALGOSWITCH=PreciseMcsAdaptSwitch-0;
//Disabling CQI adjustment
MOD CELLALGOSWITCH: LOCALCELLID=0, CQIADJALGOSWITCH=CqiAdjAlgoSwitch-0;
10.5 Deploying Dynamic Scheduling
10.5.1 Requirements
Operating Environment
• Before enabling DL frequency selective scheduling, enable the function of dynamic adjustment on the number of OFDM symbols occupied by the PDCCH. For details,
see Physical Channel Resource Management Feature Parameter Description.
• Doppler measurement level selection
LBBPc boards of macro base stations do not support Doppler measurement level selection.
Micro base stations do not support Doppler measurement level selection.
• The EPF enhancement function requires UL smart preallocation or UL preallocation to be enabled. In addition, it is recommended that the
RrcConnStateTimer.UeInactiveTimer parameter be set to a value greater than or equal to 20, further improving the gains yielded by the EPF enhancement function in
user-perceived data rates.
Transmission Networking
N/A
License
N/A
10.5.2 Precautions
Online reconfiguration of DL frequency selective scheduling is not supported. UEs need to access the network again when the status of the switch for DL frequency selective
scheduling is changed.
10.5.3 Data Preparation
This section describes the data that you need to collect for setting parameters. Required data is data that you must collect for all scenarios. Collect scenario-specific data when
necessary for a specific feature deployment scenario.
10.5.3.1 Required Data
The following table describes the parameters that must be set in a CellDlschAlgo MO to set the DL scheduling policy for each cell, reserved resource proportion for non-GBR
services, and capacity adjustment factor for DL EPF scheduling.
Table 10-2 Parameters that must be set in a CellDlschAlgo MO
Parameter Name
Parameter ID
Setting Notes
Downlink scheduling Strategy
CellDlschAlgo.DlschStrategy
It is recommended that this parameter be set to
DLSCH_PRI_TYPE_EPF(EPF).
Reserved resource ratio for non-GBR
services
CellDlschAlgo.NonGbrResourceRatio
The default value is recommended.
Downlink EPF capacity factor
CellDlschAlgo.DlEpfCapacityFactor
• When this parameter is set to
EPF_CAPC_FACTOR_1(1), a balance between UE
fairness and cell capacity can be achieved.
• If cell capacity maximization is preferred, you are
advised to set this parameter to a larger value.
However, the amounts of resources allocated to UEs
are of great difference.
• If resource allocation fairness between UEs is
preferred, you are advised to set this parameter to a
smaller value. However, the cell capacity is
decreased.
10.5.3.2 Scenario-specific Data
10.5.3.2.1 QCI Configurations for DL Non-GBR Services
The following table describes the parameters that must be set in the QciPara MO to specify QCI parameters for DL non-GBR services.
Parameter Name
Parameter ID
Setting Notes
QoS Class Identifier
QciPara.Qci
Set this parameter according to operator policies.
Downlink MinGBR
QciPara.DlMinGbr
In common operations, the default value is recommended.
NOTE:
• If this parameter is set to a large value, the Min-GBR (minimum
guaranteed bit rate) of high-priority non-GBR services can be
guaranteed but the Min-GBR of low-priority non-GBR services may
fail to be guaranteed when resources are insufficient.
• If this parameter is set to a small value, the response time for non-GBR
services may be affected.
The following table describes the parameter that must be set in the GlobalProcSwitch MO to specify whether QCI-related parameters take effect.
Parameter Name
Parameter ID
Setting Notes
QCI Parameter Effect Flag
GlobalProcSwitch.QciParaEffectFlag
Set this parameter to ON.
10.5.3.2.2 Doppler Measurement Level Selection
The following table describes the parameter that must be set in a CellUlschAlgo MO to specify the Doppler measurement level for each cell that supports enhanced scheduling.
Parameter Name
Parameter ID
Setting Notes
Doppler Measurement Level
CellUlschAlgo.DopMeasLevel
You are advised to set this parameter to the recommended value.
Setting this parameter to CLASS_1(CLASS_1) can increase DL frequency
selective scheduling gains when frequency selective scheduling is used in the
DL.
This parameter does not take effect if an LBBPc board is configured.
10.5.3.2.3 RBG Allocation Policy
The following table describes the parameter that must be set in a CellDlschAlgo MO to configure the RBG resource allocation policy.
Parameter Name
Parameter ID
Setting Notes
RBG Resource Allocation Strategy
CellDlschAlgo.RbgAllocStrategy
It is recommended that this parameter be set to
ADAPTIVE(Adaptive).
10.5.3.2.4 EPF Scheduling Enhancement
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure DL EPF scheduling enhancement for a cell.
Parameter Name
Parameter ID
Setting Notes
DL schedule switch
CellAlgoSwitch.DlSchSwitch
The EpfEnhancedSwitch option of this parameter specifies whether to
enable DL EPF scheduling enhancement.
The default value is recommended.
10.5.3.2.5 Scheduling Termination for Abnormal UEs
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure the function of scheduling termination for abnormal UEs.
Parameter Name
Parameter ID
Setting Notes
Cell Schedule Strategy Switch
CellAlgoSwitch.CellSchStrategySwitch
You are advised to select the AbnUeSchSwitch option of this
parameter. The function controlled by this option prevents UEs with
abnormal links from overusing system resources, improving resource
utilization and reducing the residual BLER in the system.
The following table describes the parameter that must be set in a CellDlschAlgo MO to configure the threshold for scheduling termination for abnormal UEs in the DL.
Parameter Name
Parameter ID
Setting Notes
Downlink Schedule Abnormal Ue
Threshold
CellDlschAlgo.DlSchAbnUeThd
This parameter is valid only when the AbnUeSchSwitch option of the
CellAlgoSwitch.CellSchStrategySwitch parameter is selected.
The default value is recommended.
10.5.3.2.6 Stopping Aperiodic CQI Reporting When No Scheduling Is Performed
The following table describes the parameter that must be set in a CellDlschAlgo MO to configure the threshold for stopping aperiodic CQI reporting in downlink frequency
selective scheduling. The threshold is a period of time in which a UE is not scheduled.
Parameter Name
Parameter ID
Setting Notes
No Scheduling Stop Triggering ACqi
Thd
CellDlschAlgo.NoSchStopACqiThd
This parameter is valid only when the FreqSelSwitch(FreqSelSwitch)
option of the CellAlgoSwitch.DlSchSwitch parameter is selected.
The default value 40 is recommended. The unit is ms.
10.5.3.2.7 DL AMBR Control over Non-GBR Services
The following table describes the parameter that must be set in a CellDlSchAlgo MO to configure the period of controlling the downlink AMBR for non-GBR services of a UE.
Parameter Name
Parameter ID
DL UE-AMBR Judge Period
CellDlschAlgo.AmbrCtrlTcycle
Setting Notes
• In most cases, you are advised to set this parameter to the
default value AMBR_50_MS(AMBR_50_MS).
• If the UE-AMBRs of a large number of UEs on the network
are low and the network is not congested, you can increase
the value of this parameter. The recommended maximum
value is AMBR_500_MS(AMBR_500_MS).
• If UE-AMBR control is not required, set this parameter to
AMBR_1000_MS(AMBR_1000_MS).
10.5.3.2.8 Delayed Scheduling of DL RLC Status Reports
The following table describes the parameter that must be set in a CellAlgoSwitch MO to enable delayed scheduling of DL RLC status reports.
Parameter Name
Parameter ID
Setting Notes
DL schedule switch
CellAlgoSwitch.DlSchSwitch
The DlRLCStateReportSchDelaySw option of this parameter
specifies whether to enable delayed scheduling of DL RLC status
reports.
In most cases, you are advised to deselect this option.
Select this option to increase user-perceived DL data rates when all
the following conditions are met:
Parameter Name
Parameter ID
Setting Notes
• The RlcPdcpParaGroup.RlcParaAdaptSwitch parameter is set
to ON(On).
• The DL PRB usage, number of RRC_CONNECTED UEs in
the cell, and the PDCCH CCE usage are greater than 80%,
200, and 70%, respectively, in big events.
10.5.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Setting the DL scheduling policy
Run the MOD CELLDLSCHALGO command with the Downlink scheduling Strategy, Reserved resource ratio for non-GBR services, and Downlink EPF
capacity factor parameters specified.
• Configuring the QCI for DL non-GBR services
1. Run the MOD QCIPARA command to set QCI parameters for DL non-GBR services. The parameters include QoS Class Identifier and Downlink MinGBR.
2. Run the MOD GLOBALPROCSWITCH command with the QCI Parameter Effect Flag parameter set to ON(On).
• Setting the Doppler measurement level
Run the MOD CELLULSCHALGO command with the Doppler Measurement Level parameter specified.
• Setting the RBG allocation policy
Run the MOD CELLDLSCHALGO command with the RBG Resource Allocation Strategy parameter specified.
• Enabling EPF scheduling enhancement
Run the MOD CELLALGOSWITCH command with the EpfEnhancedSwitch option of the DL schedule switch parameter selected.
• Enabling the function of scheduling termination for abnormal UEs
Run the MOD CELLALGOSWITCH command with the AbnUeSchSwitch option of the Cell Schedule Strategy Switch parameter selected.
Run the MOD CELLDLSCHALGO command with the Downlink Schedule Abnormal Ue Threshold parameter specified.
• Setting the threshold for stopping aperiodic CQI reporting
Run the MOD CELLDLSCHALGO command with the No Scheduling Stop Triggering ACqi Thd parameter specified.
• Enabling delayed scheduling of DL RLC status reports
Run the MOD CELLALGOSWITCH command with the DLRLCStateReportSchDelaySw option of the DL schedule switch parameter selected.
MML Command Examples
• Setting the DL scheduling policy
MOD CELLDLSCHALGO: LOCALCELLID=0, DLSCHSTRATEGY=DLSCH_PRI_TYPE_EPF, NONGBRRESOURCERATIO=0, DLEPFCAPACITYFACTOR=EPF_CAPC_FACTOR_1;
• Configuring the QCI for DL non-GBR services
MOD QCIPARA: QCI=QCI6, DLMINGBR=MinGbrRate_1_KB;
MOD GLOBALPROCSWITCH: QciParaEffectFlag=ON;
• Setting the Doppler measurement level
MOD CELLULSCHALGO: LOCALCELLID=0, DOPMEASLEVEL=CLASS_0;
• Setting the RBG allocation policy
MOD CELLDLSCHALGO: LOCALCELLID=0, RBGALLOCSTRATEGY=ROUND_DOWN;
• Enabling EPF scheduling enhancement
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=EpfEnhancedSwitch-1;
• Enabling the function of scheduling termination for abnormal UEs
MOD CELLALGOSWITCH: LOCALCELLID=0, CELLSCHSTRATEGYSWITCH=AbnUeSchSwitch-1;
MOD CELLDLSCHALGO: LOCALCELLID=0, DLSCHABNUETHD=15;
• Setting the threshold for stopping aperiodic CQI reporting
MOD CELLDLSCHALGO: LOCALCELLID=0, NOSCHSTOPACQITHD=5;
• Enabling delayed scheduling of DL RLC status reports
MOD CELLALGOSWITCH:LOCALCELLID=0,DlSchSwitch=DLRLCStateReportSchDelaySw-1;
10.5.5 Activation Observation
This section describes the procedures for verifying the activation of DL dynamic scheduling. The following examples show test results for commercial UEs in cells with a
bandwidth of 20 MHz.
Observing EPF for DL Scheduling (Using Performance Counters)
To observe whether EPF has taken effect for DL scheduling, observe the values of counters listed in Table 10-3 and observe the traffic volume and duration of services with
different QCIs.
Table 10-3 Counters related to DL enhanced scheduling
Counter Name
Description
L.Thrp.bits.DL.QCI.1~9
Downlink traffic volume of PDCP SDUs of services with a QCI of x in a cell
L.Thrp.Time.DL.QCI.1~9
Transmission duration of downlink PDCP SDUs for services with a QCI of x in
a cell
If the value of L.Thrp.bits.DL.QCI.6 is higher than that of L.Thrp.bits.DL.QCI.9 within the same period of service time, EPF has taken effect for DL scheduling.
Observing EPF for DL Scheduling (Using the U2000)
To observe whether EPF has taken effect for DL scheduling, perform the following steps:
1. Enable two UEs to access a cell in the cell center.
2. On the U2000 client, start channel quality monitoring and MCS-based count monitoring on each UE. The following are methods for starting these tasks:
• To start channel quality monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree, choose LTE > User
Performance Monitoring > Quality of Channel Monitoring.
• To start MCS-based count monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree, choose LTE >
User Performance Monitoring > MCS Count Monitoring.
3. Check the channel quality monitoring results of each UE. For example, the CQI for both UEs is 15.
4. Run the LST QCIPARA command to query the DL scheduling weight factors for QCIs 6 and 9.
5. Perform a DL service with QCI 6 on UE 1 and a DL service with QCI 9 on UE 2.
6. Check the MCS-based count monitoring results for the number of DL RBs allocated to each UE. If the ratio of the number for UE 1 to the number for UE 2 is
approximately equal to the ratio of the weight factor for QCI 6 to the weight factor for QCI 9, EPF for DL scheduling has been activated successfully.
Observing the Round-Up Function for RBGs
To observe whether the round-up function for RBGs has taken effect, perform the following steps:
1. Start RB usage monitoring on the U2000: Choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose LTE >
Cell Performance Monitoring > Usage of RB Monitoring.
2. Enable a large number of UEs (such as 20 UEs) to access a cell. Originate traffic bursts in the cell and keep the RB usage at a low level (such as 50%). Record the
actual RB usage.
3. Set the GBR round-up switch to ON. If the RB usage rises, the round-up function for RBGs has taken effect.
Observing the EPF Scheduling Enhancement Function
To observe whether the EPF scheduling enhancement function has taken effect, perform the following steps:
1. In mobile broadband (MBB) scenarios, calculate throughput using the following formula: Throughput = L.Thrp.bits.DL/L.Thrp.Time.DL
2. Set the switch of the EPF scheduling enhancement function to ON.
3. Compare the throughput before and after the switch is set to ON. If the throughput increases, the EPF scheduling enhancement function has taken effect.
10.5.6 Reconfiguration
None
10.5.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Disabling EPF scheduling enhancement
Run the MOD CELLALGOSWITCH command with the EpfEnhancedSwitch option of the DL schedule switch parameter deselected.
• Disabling the function of scheduling termination for abnormal UEs
Run the MOD CELLALGOSWITCH command with the AbnUeSchSwitch option of the Cell Schedule Strategy Switch parameter deselected.
• Disabling delayed scheduling of DL RLC status reports
Run the MOD CELLALGOSWITCH command with the DLRLCStateReportSchDelaySw option of the DL schedule switch parameter deselected.
MML Command Examples
• Disabling EPF scheduling enhancement
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=EpfEnhancedSwitch-0;
• Disabling the function of scheduling termination for abnormal UEs
MOD CELLALGOSWITCH: LOCALCELLID=0, CELLSCHSTRATEGYSWITCH=AbnUeSchSwitch-0;
• Disabling delayed scheduling of DL RLC status reports
MOD CELLALGOSWITCH:LOCALCELLID=0, DlSchSwitch=DLRLCStateReportSchDelaySw-0;
10.6 Deploying DL Non-GBR Packet Bundling
10.6.1 Requirements
Operating Environment
N/A
Transmission Networking
N/A
License
Operators must purchase and activate the following license.
Feature ID
Feature Name
Model
License Control Item
NE
Sales Unit
LOFD-001109
DL Non-GBR Packet
Bundling
LT1S0DLNPB00
DL Non-GBR Packet Bundling (FDD)
eNodeB
per cell
10.6.2 Precautions
None
10.6.3 Data Preparation
The following table describes the parameter that must be set in the CellAlgoSwitch MO to enable DL non-GBR packet bundling for each cell.
Parameter Name
Parameter ID
Setting Notes
DL schedule switch
CellAlgoSwitch.DlSchSwitch
The NonGbrBundlingSwitch option of this parameter specifies whether to
enable DL non-GBR packet bundling.
10.6.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
Run the MOD CELLALGOSWITCH command with the NonGbrBundlingSwitch(NonGbrBundlingSwitch) option of the DL schedule switch parameter selected.
MML Command Examples
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=NonGbrBundlingSwitch-1;
10.6.5 Activation Observation
This section uses a cell with 10 MHz bandwidth and six test UEs as an example to describe how to observe the effectiveness of DL Non-GBR Packet Bundling.
Scenario 1: Cell Delay Distribution Improvement Expected
1. Change the cell bandwidth to 10 MHz, and change the number of PDCCH symbols of the cell to 1.
MOD CELL: LOCALCELLID=0, ULBANDWIDTH=CELL_BW_N50, DLBANDWIDTH=CELL_BW_N50;
MOD CELLPDCCHALGO: LOCALCELLID=0, INITPDCCHSYMNUM=1, PDCCHSYMNUMSWITCH=OFF;
2. Use six test UEs to attach to the cell from the cell center, and move them to the cell edge. Then, inject 500,000 downlink packets of 100 bytes each to each UE.
The scripts for packet injection on the server on the eNodeB side are as follows:
iperf -c UEIP -u -b 500k -l 100 -t 999999 -i 1
3. On the U2000, start the following monitoring tasks for the test UEs:
• MCS-based count monitoring
Choose Monitor > Signaling Trace > Signaling Trace Management. In the navigation tree, choose User Performance Monitoring > MCS Count
Monitoring.
• Cell DCI monitoring
Choose Monitor > Signaling Trace > Signaling Trace Management. In the navigation tree, choose Cell Performance Monitoring > DCI Statistic
Monitoring.
• Cell RB usage monitoring
Choose Monitor > Signaling Trace > Signaling Trace Management. In the navigation tree, choose Cell Performance Monitoring > Usage of RB
Monitoring.
• Cell data radio bearer (DRB) monitoring
Choose Monitor > Signaling Trace > Signaling Trace Management. In the navigation tree, choose Cell Performance Monitoring > DRB Statistic
Monitoring.
4. Adjust the signal quality of the test UEs to achieve the following:
• The UEs are scheduled in the DL with the MCS index of around 7 (the scheduling frequency is specified by DLSCH Code0 Num7).
NOTE:
The aim of adjusting the signal quality of the test UEs is to degrade the quality of the PDCCH for the UEs. After the quality of the PDCCH is degraded, an
increased CCE aggregation level is used and more CCEs are consumed so that PDCCH congestion occurs. If the value of Processing Delay of PDCP
SDUs with QCI9 does not increase significantly according to the monitoring results shown in Figure 10-4, PDCCH congestion has not occurred. In this
situation, further decrease the signal quality of the test UEs.
• The sum of the UL DCI usage (specified by UL DCI Utilization Within a Monitoring Period) and the DL DCI usage (specified by DL DCI Utilization Within a
Monitoring Period) for these UEs is greater than 80%.
• The DL cell RB usage is between 60% and 80%.
Figure 10-1 Example of MCS count monitoring
Figure 10-2 Example of cell DCI monitoring
Figure 10-3 Example of RB usage monitoring
5. Collect statistics on the average delay for packets with QCI 9 for a 2-minute period.
The calculation formula is as follows:
Average delay for packets with QCI 9 = Processing Delay of PDCP SDUs with QCI9/Number of Succ Trans DL PDCP SDUs with QCI9
Figure 10-4 Example of DRB monitoring
6. Enable DL Non-GBR Packet Bundling.
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=NonGbrBundlingSwitch-1;
7. Collect statistics on the average delay for packets with QCI 9 for a 2-minute period. The following table provides the statistics about the delay for packets with QCI 9.
Measurement Point
Average Delay (ms)
Maximum Delay (ms)
Delay Variance (ms x ms)
3 minutes before DL Non-GBR
Packet Bundling is enabled
556.03
775.31
6340.73
3 minutes after DL Non-GBR
Packet Bundling is enabled
46.32
65.96
104.51
Scenario 2: TCP Throughput Increase Expected
In this scenario, perform the following steps to observe whether DL Non-GBR Packet Bundling has increased the TCP throughput:
1. Change the cell bandwidth to 10 MHz, and change the number of PDCCH symbols of the cell to 1.
MOD CELL: LOCALCELLID=0, ULBANDWIDTH=CELL_BW_N50, DLBANDWIDTH=CELL_BW_N50;
MOD CELLPDCCHALGO: LOCALCELLID=0, INITPDCCHSYMNUM=1, PDCCHSYMNUMSWITCH=OFF;
2. Use six test UEs to attach to the cell from the cell center, and move them to the cell edge.
• Inject 500,000 downlink packets of 100 bytes each to five UEs.
The script for packet injection on the server is as follows:
iperf -c UEIP -u -b 500k -l 100 -t 999999 -i 1
• Simulate downlink TCP traffic for the other UE.
The script for packet injection on the server is as follows:
iperf -c UEIP -w 512k -t 9999999 -i 1
3. On the U2000, start the following monitoring tasks for the test UEs:
• MCS-based count monitoring
Choose Monitor > Signaling Trace > Signaling Trace Management. In the navigation tree, choose User Performance Monitoring > MCS Count
Monitoring.
• Cell DCI monitoring
Choose Monitor > Signaling Trace > Signaling Trace Management. In the navigation tree, choose Cell Performance Monitoring > DCI Statistic
Monitoring.
• Cell RB usage monitoring
Choose Monitor > Signaling Trace > Signaling Trace Management. In the navigation tree, choose Cell Performance Monitoring > Usage of RB
Monitoring.
• Cell DRB monitoring
Choose Monitor > Signaling Trace > Signaling Trace Management. In the navigation tree, choose Cell Performance Monitoring > DRB Statistic
Monitoring.
4. Start a TCP throughput monitoring task.
On the U2000, choose Monitor > Signaling Trace > Signaling Trace Management. In the navigation tree, choose User Performance Monitoring > Throughput
Monitoring.
5. Adjust the signal quality of the test UEs to achieve the following: The UEs are scheduled in the DL with the MCS index of around 7 (the scheduling frequency is
specified by DLSCH Code0 Num7). The sum of the UL and DL DCI usages for these UEs is greater than 80%.
The DRB monitoring results in this example show that the average delay for packets with QCI 9 is longer than 500 ms, which is excessive (the calculation formula:
Processing Delay of PDCP SDUs with QCI9/Number of Succ Trans DL PDCP SDUs with QCI9).
Figure 10-5 Example of MCS count monitoring
Figure 10-6 Example of cell DCI monitoring
Figure 10-7 Example of DRB monitoring
6. Observe the TCP throughput. The average TCP throughput is about 1 Mbit/s.
Figure 10-8 Example of throughput monitoring for TCP service
7. Enable DL Non-GBR Packet Bundling.
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=NonGbrBundlingSwitch-1;
Observe the TCP throughput. After this feature is enabled, the average TCP throughput increases to about 1.8 Mbit/s.
Figure 10-9 Example of throughput monitoring for TCP service
10.6.6 Reconfiguration
None
10.6.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
Run the MOD CELLALGOSWITCH command with the NonGbrBundlingSwitch(NonGbrBundlingSwitch) option of the DL schedule switch parameter deselected.
MML Command Examples
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=NonGbrBundlingSwitch-0;
10.7 Deploying the Traffic Model Based Performance Optimization Feature
10.7.1 Requirements
Operating Environment
In CA scenarios, all CA cells must have this feature enabled. In performance analysis, all CA cells need to be observed.
Transmission Networking
N/A
License
Operators must purchase and activate the following license.
Feature ID
Feature Name
Model
License Control Item
NE
LOFD-110205
Traffic Model Based
Performance Optimization
LT1S00PLAS00
Traffic Model Based Performance eNodeB
Optimization (FDD)
Sales Unit
per cell
10.7.2 Precautions
None
10.7.3 Data Preparation
The following table describes the parameters that must be set in a CellAlgoSwitch MO to configure the Traffic Model Based Performance Optimization feature.
Parameter Name
Parameter ID
Setting Notes
Local cell ID
CellAlgoSwitch.LocalCellId
This parameter specifies the local identifier of the cell. Set this parameter
based on the network plan. Ensure that this parameter has been set in the
related Cell MO.
Parameter Name
Parameter ID
Setting Notes
DL schedule switch
CellAlgoSwitch.DlSchSwitch
The DlPacketLenAwareSchSw(DlPacketLenAwareSchSw) option of this
parameter specifies whether to enable Traffic Model Based Performance
Optimization in the downlink.
10.7.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
• Fast batch activation
This feature can be batch activated using the Feature Operation and Maintenance function of the CME. For detailed operations, see the following section in the CME
product documentation or online help: CME Management > CME Guidelines > Enhanced Feature Management > Feature Operation and Maintenance.
• Single/batch configuration
This feature can be activated for a single eNodeB or a batch of eNodeBs on the CME. For detailed operations, see CME-based Feature Configuration.
Using MML Commands
Run the MOD CELLALGOSWITCH command with the DlPacketLenAwareSchSw(DlPacketLenAwareSchSw) option of the DL schedule switch parameter selected to
enable Traffic Model Based Performance Optimization in the downlink.
MML Command Examples
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=DlPacketLenAwareSchSw-1;
10.7.5 Activation Observation
1. Check the number of users and RB usage in the cell. It is easy to observe the gains yielded by the Packet Length Awareness Performance Optimization feature when
the cell traffic load is heavy.
Recommended configurations:
• The cell serves more than 150 users.
• DL RB usage is greater than 60%.
To start cell RB usage monitoring, choose Monitor > Signaling Trace > Signaling Trace Management on the U2000. In the navigation tree, choose Cell
Performance Monitoring > Usage of RB Monitoring.
2. Adjust service configurations.
Recommended service configurations:
• Average data rate for large-packet services: around 8 Mbit/s
• Average data rate for small-packet services: around 12 kbit/s
• Ratio of large-packet services to small-packet services: 1:4
3. Check perceivable user throughput after activating the feature for a while. If perceivable user throughput increases by 5% or higher, the Packet Length Awareness
Performance Optimization feature has taken effect.
10.7.6 Reconfiguration
None
10.7.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
Run the MOD CELLALGOSWITCH command with the DlPacketLenAwareSchSw(DlPacketLenAwareSchSw) option of the DL schedule switch parameter deselected to
disable Traffic Model Based Performance Optimization in the downlink.
MML Command Examples
MOD CELLALGOSWITCH: LOCALCELLID=0, DLSCHSWITCH=DlPacketLenAwareSchSw-0;
10.8 Performance Monitoring
DL Scheduling
In DL scheduling, the features helping improve DL spectral efficiency may cause the value of L.Traffic.ActiveUser.DL.Avg to decrease.
In DL scheduling, the increase in user-perceived DL data rates can be monitored using the following formula:
(L.Thrp.bits.DL – L.Thrp.bits.DL.LastTTI)/L.Thrp.Time.DL.RmvLastTTI
DL Non-GBR Packet Bundling
Observe the resource occupation ratio on the PDCCH and PDSCH and the downlink packet processing delay.
• Calculate the resource occupation ratio on the PDCCH using the following formula:
(L.ChMeas.CCE.CommUsed + L.ChMeas.CCE.ULUsed + L.ChMeas.CCE.DLUsed)/L.ChMeas.CCE.Avail
• Calculate the resource occupation ratio on the PDSCH using the following formula:
L.ChMeas.PRB.DL.Used.Avg/L.ChMeas.PRB.DL.Avail
• Calculate the downlink packet processing delay using the following formulas:
◾ L.Traffic.DL.PktDelay.Time.QCI.6/L.Traffic.DL.PktDelay.Num.QCI.6
◾ L.Traffic.DL.PktDelay.Time.QCI.7/L.Traffic.DL.PktDelay.Num.QCI.7
◾ L.Traffic.DL.PktDelay.Time.QCI.8/L.Traffic.DL.PktDelay.Num.QCI.8
◾ L.Traffic.DL.PktDelay.Time.QCI.9/L.Traffic.DL.PktDelay.Num.QCI.9
If the resource occupation ratio on the PDCCH is greater than 80% but the resource occupation ratio on the PDSCH is low, PDCCH resources may be insufficient. After
activating DL Non-GBR Packet Bundling, check whether the resource occupation ratio on the PDSCH increases and whether the downlink packet processing delay distribution
improves.
If so, DL Non-GBR Packet Bundling has taken effect.
For the LBFD-00101501 CQI Adjustment feature: This feature supports quick configuration of counter collection by feature using the U2000. The measurement for the counters
related to this feature can be set in a single operation. These counters are determined by the counter-feature relationships listed in the performance counter reference. For
details about the operations, see "Quickly Setting Performance Measurement by Feature" in iManager U2000 MBB Network Management System Product Documentation. The
LBFD-00101502 Dynamic Scheduling feature also supports the stated function.
10.9 Parameter Optimization
In a lightly loaded cell where the number of UEs with small UE-AMBR values is large, increase the value of the CellDlschAlgo.AmbrCtrlTcycle parameter to increase userperceived data rates. If an operator does not plan to restrict the UE-AMBR, set the CellDlschAlgo.AmbrCtrlTcycle parameter to AMBR_1000_MS(AMBR_1000_MS). For details
about this parameter and the setting suggestions, see 4.2.5 DL AMBR Control over Non-GBR Services and 10.5.3.2.7 DL AMBR Control over Non-GBR Services, respectively.
10.10 Possible Issues
N/A
11
Engineering Guidelines for Basic UL Scheduling Features
This chapter provides engineering guidelines for basic UL scheduling features. The following features are not described in this chapter because they are enabled by default and
do not involve configurable parameters:
• LBFD-001006 AMC
• LBFD-002006 UL Synchronous HARQ
11.1 When to Use
11.1.1 LBFD-002025 Basic Scheduling
For details about when to use LBFD-002025 Basic Scheduling, see 9.1.1 LBFD-002025 Basic Scheduling.
11.1.2 LBFD-060102 Enhanced UL Frequency Selective Scheduling
It is good practice to enable the Enhanced UL Frequency Selective Scheduling feature.
After this feature is enabled, the frequency selective scheduling or interference randomization technique reduces inter-UE interference and therefore increases user throughput.
The function of optimized UL frequency selective scheduling based on the estimated UE speed depends on the selection of Doppler measurement level. For details about the
selection of Doppler measurement level, see 10.5 Deploying Dynamic Scheduling.
11.1.3 LBFD-070102 MBR>GBR Configuration
For details, see 9.1.3 LBFD-070102 MBR>GBR Configuration.
11.2 Required Information
None
11.3 Planning
None
11.4 Deploying Basic Scheduling
11.4.1 Requirements
There is no requirement for the operating environment, transmission networking, and license.
11.4.2 Precautions
None
11.4.3 Data Preparation
This section describes the data that you need to collect for setting parameters. Required data is data that you must collect for all scenarios. Collect scenario-specific data when
necessary for a specific feature deployment scenario.
Required Data
The following table describes the parameter that must be set in a CellUlschAlgo MO to specify the UL scheduling policy.
Parameter Name
Parameter ID
Setting Notes
Uplink Scheduling Strategy
CellUlschAlgo.UlschStrategy
Select Max C/I, RR, or PF as a basic scheduling policy.
Scenario-specific Data
The following table describes the parameter that must be set in a CellUlschAlgo MO to specify the maximum number of UL HARQ transmissions.
Parameter Name
Parameter ID
Setting Notes
Uplink HARQ Maximum
Transmission Number
CellUlschAlgo.UlHarqMaxTxNum
This parameter specifies the maximum number of HARQ transmissions in the UL.
This parameter takes effect only when TTI bundling is disabled.
The default value is 5.
The following table describes the parameters that must be set in the RlcPdcpParaGroup MO to set the eNodeB-specific timer for reordering at the receiver in AM or UM.
Parameter Name
Parameter ID
Setting Notes
Parameter Name
Parameter ID
AM reordering timer for
eNodeB
RlcPdcpParaGroup.EnodeBAmReorderingTimer
Setting Notes
UM reordering timer for
eNodeB
RlcPdcpParaGroup.EnodeBUmReorderingTimer
• Set the parameter to 50 ms or a larger value when the
CellUlschAlgo.UlHarqMaxTxNum parameter is set to 7.
• Set the parameter to 60 ms or a larger value when
CellUlschAlgo.UlHarqMaxTxNum is set to 8.
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure the function of increasing the number of RBs to lower the bit rate for UL
HARQ retransmissions.
Parameter Name
Parameter ID
Setting Notes
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
The UlLast2RetransSchOptSwitch option of this parameter specifies whether to
enable UL HARQ retransmissions to use a lowered code rate. When this option is
selected, the UL RBLER and service drop rate decrease but UL throughput may
also decrease. When the maximum number of UL HARQ retransmissions retains
the default value, UL throughput decreases slightly. The smaller the maximum
number of UL HARQ retransmissions, the greater the UL throughput loss.
The default value is recommended.
The following table describes the parameter that must be set in a CellUlSchAlgo MO to configure the function of optimizing retransmission scheduling for UL voice services.
Parameter Name
Parameter ID
Setting Notes
Uplink Enhanced VoIP Schedule
Switch
CellUlSchAlgo.UlEnhencedVoipSchSw
The UlVoipRblerControlSwitch option of this parameter specifies whether to use
more RBs for adaptive retransmissions of UL voice services when the optimized
scheduling of the last two UL retransmissions is enabled. When this option is
selected, the RBLER and packet loss rate for voice services decrease, improving
voice quality.
(Optional) The following table describes the parameter that must be set in a CellUlSchAlgo MO to specify the maximum number of RBs that can be allocated to each UE in the
UL.
Parameter Name
Parameter ID
Setting Notes
Max Uplink Scheduling Allocation
RB Number
CellUlSchAlgo.MaxUlSchRbNum
In most cases, retain the default value 255 so that the eNodeB does not restrict
the maximum number of RBs that can be allocated to each UE in the UL.
To reduce spurious emission from UEs in 10 MHz cells operating on the 900 MHz
frequency to other frequencies, set this parameter to 32.
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure the PAMC function.
Parameter Name
Parameter ID
Setting Notes
Uplink Schedule Extended Switch
CellAlgoSwitch.UlSchExtSwitch
You are advised to select the UlPAMCSwitch(UlPAMCSwitch) option of this
parameter if the average UL MCS index is less than 15 and the MCSs with
indexes smaller than 10 are selected on more than 10% occasions of UL
scheduling.
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure the UL Multi-Cluster function.
Parameter Name
Parameter ID
Uplink Schedule Extended Switch CellAlgoSwitch.UlSchExtSwitch
Setting Notes
When there are UL frequency spectrum fragments, for example, in the case of
PUCCH Flexible Configuration and manual blocking of certain PRBs, select the
UlMultiClusterSwitch option of this parameter to enable the UL Multi-Cluster
function.
11.4.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Setting the UL scheduling policy
Run the MOD CELLULSCHALGO command with the Uplink Scheduling Strategy parameter specified.
• Setting the maximum number of UL HARQ retransmissions
Run the MOD CELLULSCHALGO command with the Uplink HARQ Maximum Transmission Number parameter specified.
Run the MOD RLCPDCPPARAGROUP command with the AM reordering timer for eNodeB or UM reordering timer for eNodeB parameter specified.
• Enabling the function of increasing the number of RBs and reducing the code rate for UL HARQ retransmissions
Run the MOD CELLALGOSWITCH command with the UlLast2RetransSchOptSwitch option of the Uplink schedule switch parameter selected.
Run the MOD CELLULSCHALGO command with the UlVoipRblerControlSwitch option of the Uplink Enhanced VoIP Schedule Switch parameter selected.
• (Optional) Setting the maximum number of RBs that can be allocated to each UE in UL scheduling
Run the MOD CELLULSCHALGO command with the Max Uplink Scheduling Allocation RB Number parameter specified.
• Enabling the PAMC function
Run the MOD CELLALGOSWITCH command with the UlPAMCSwitch(UlPAMCSwitch) option of the Uplink Schedule Extended Switch parameter selected.
• Enabling the UL Multi-Cluster function
Run the MOD CELLALGOSWITCH command with the UlMultiClusterSwitch(UlMultiClusterSwitch) option of the Uplink Schedule Extended Switch parameter
selected.
MML Command Examples
• Setting the UL scheduling policy to PF
MOD CELLULSCHALGO: LOCALCELLID=0, ULSCHSTRATEGY=ULSCH_STRATEGY_PF;
• Setting the maximum number of UL HARQ retransmissions
//Setting the maximum number of UL HARQ retransmissions to 5
MOD CELLULSCHALGO: LOCALCELLID=0, ULHARQMAXTXNUM=5;
//Setting the eNodeB-specific timer for reordering at the receiver in AM
MOD RLCPDCPPARAGROUP: RLCPDCPPARAGROUPID=0, RLCMODE=RlcMode_AM, ENODEBAMREORDERINGTIMER=Treordering_m50;
//Setting the eNodeB-specific timer for reordering at the receiver in UM
MOD RLCPDCPPARAGROUP: RLCPDCPPARAGROUPID=0, RLCMODE=RlcMode_UM, ENODEBUMREORDERINGTIMER=Treordering_m50;
• Enabling the function of increasing the number of RBs and reducing the code rate for UL HARQ retransmissions
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlLast2RetransSchOptSwitch-1;
MOD CELLULSCHALGO: LOCALCELLID=0, ULENHENCEDVOIPSCHSW=UlVoipRblerControlSwitch-1;
• (Optional) Setting the maximum number of RBs that can be allocated to each UE in UL scheduling
//To reduce spurious emission from UEs in 10 MHz cells operating on the 900 MHz frequency to other frequencies, set this parameter to
32.
MOD CELLULSCHALGO: LOCALCELLID=0, MaxUlSchRbNum=32;
• Enabling the PAMC function
MOD CELLALGOSWITCH:LocalCellId=0,UlSchExtSwitch=UlPAMCSwitch-1;
• Enabling the UL Multi-Cluster function
MOD CELLALGOSWITCH:LocalCellId=0,UlSchExtSwitch=UlMultiClusterSwitch-1;
11.4.5 Activation Observation
This section describes the procedures for verifying the activation of UL scheduling. The following examples show test results for commercial UEs in cells with a bandwidth of 20
MHz.
Observing Max C/I for UL Scheduling (Using the U2000)
To observe whether Max C/I has been activated for UL scheduling, perform the following steps:
1. Enable two UEs to access a cell. Perform UL packet injection on the default bearer of each UE to ensure that the UL cell throughput reaches its maximum.
2. On the U2000 client, start channel quality monitoring, MCS-based count monitoring, and throughput monitoring on each UE. The following are methods for starting
these tasks:
• To start channel quality monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > Quality of Channel Monitoring.
• To start MCS-based count monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > MCS Count Monitoring.
• To start throughput monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose LTE >
User Performance Monitoring > Throughput Monitoring.
3. Adjust the locations of the two UEs in the cell so that UE 1 experiences good UL channel quality and UE 2 experiences poor UL channel quality. Monitor channel
quality for UE 1 and UE 2. For example, the SINR for UE 1 is approximately 21 dB, and the SINR for UE 2 is approximately 10 dB.
4. Check the MCS-based count monitoring results for the number of UL RBs allocated to each UE. Then check the throughput monitoring results for the UL throughput of
each UE. If UE 1 occupies a majority of the total UL cell throughput and has been allocated more RBs than UE 2, Max C/I has been activated successfully.
Observing RR for UL Scheduling (Using the U2000)
To observe whether RR has been activated for UL scheduling, perform the following steps:
1. Enable two UEs to access a cell in the cell center. Perform a UL service on the default bearer of each UE.
2. On the U2000 client, start channel quality monitoring and MCS-based count monitoring on each UE. The following are methods for starting these tasks:
• To start channel quality monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > Quality of Channel Monitoring.
• To start MCS-based count monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > MCS Count Monitoring.
3. Monitor channel quality for UE 1 and UE 2. For example, the SINR for both UEs is approximately 21 dB.
4. Check the MCS-based count monitoring results for the number of times each UE is scheduled in the UL. If the results are approximately the same for both UEs, RR
has been activated successfully.
Observing PF for UL Scheduling (Using the U2000)
To observe whether PF has been activated for UL scheduling, perform the following steps:
1. Enable two UEs to access a cell. Perform a UL service on the default bearer of each UE.
2. On the U2000 client, start channel quality monitoring and MCS-based count monitoring on each UE. The following are methods for starting these tasks:
• To start channel quality monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > Quality of Channel Monitoring.
• To start MCS-based count monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > MCS Count Monitoring.
3. Adjust the locations of the two UEs in the cell so that UE 1 experiences good UL channel quality and UE 2 experiences poor UL channel quality. Monitor channel
quality for UE 1 and UE 2. For example, the SINR for UE 1 is approximately 21 dB, and the SINR for UE 2 is approximately 10 dB.
4. Check the MCS-based count monitoring results for the number of UL RBs allocated to each UE. If the results are approximately the same for both UEs, PF has been
activated successfully.
11.4.6 Reconfiguration
None
11.4.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Setting the maximum number of UL HARQ retransmissions
Run the MOD CELLULSCHALGO command with the Uplink HARQ Maximum Transmission Number parameter specified.
Run the MOD RLCPDCPPARAGROUP command with the AM reordering timer for eNodeB or UM reordering timer for eNodeB parameter specified.
• Disabling the function of increasing the number of RBs and reducing the code rate for UL HARQ retransmissions
Run the MOD CELLALGOSWITCH command with the UlLast2RetransSchOptSwitch option of the Uplink schedule switch parameter deselected.
Run the MOD CELLULSCHALGO command with the UlVoipRblerControlSwitch option of the Uplink Enhanced VoIP Schedule Switch parameter deselected.
• (Optional) Disabling the function of restricting the maximum number of RBs that can be allocated to each UE in the UL
Run the MOD CELLULSCHALGO command with the Max Uplink Scheduling Allocation RB Number parameter specified.
• Disabling the PAMC function
Run the MOD CELLALGOSWITCH command with the UlPAMCSwitch(UlPAMCSwitch) option of the Uplink Schedule Extended Switch parameter deselected.
• Disabling the UL Multi-Cluster function
Run the MOD CELLALGOSWITCH command with the UlMultiClusterSwitch(UlMultiClusterSwitch) option of the Uplink Schedule Extended Switch parameter
deselected.
MML Command Examples
• Setting the maximum number of UL HARQ retransmissions
//Setting the maximum number of UL HARQ retransmissions to 1
MOD CELLULSCHALGO: LOCALCELLID=0, ULHARQMAXTXNUM=1;
//Setting the eNodeB-specific timer for reordering at the receiver in AM
MOD RLCPDCPPARAGROUP: RLCPDCPPARAGROUPID=0, RLCMODE=RlcMode_AM, ENODEBAMREORDERINGTIMER=Treordering_m40;
//Setting the eNodeB-specific timer for reordering at the receiver in UM
MOD RLCPDCPPARAGROUP: RLCPDCPPARAGROUPID=0, RLCMODE=RlcMode_UM, ENODEBUMREORDERINGTIMER=Treordering_m40;
• Disabling the function of increasing the number of RBs and reducing the code rate for UL HARQ retransmissions
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlLast2RetransSchOptSwitch-0;
MOD CELLULSCHALGO: LOCALCELLID=0, ULENHENCEDVOIPSCHSW=UlVoipRblerControlSwitch-0;
• (Optional) Disabling the function of restricting the maximum number of RBs that can be allocated to each UE in the UL
MOD CELLULSCHALGO: LOCALCELLID=0, MaxUlSchRbNum=255;
• Disabling the PAMC function
MOD CELLALGOSWITCH:LocalCellId=0,UlSchExtSwitch=UlPAMCSwitch-0;
• Disabling the UL Multi-Cluster function
MOD CELLALGOSWITCH:LocalCellId=0,UlSchExtSwitch=UlMultiClusterSwitch-0;
11.5 Deploying Enhanced UL Frequency Selective Scheduling
11.5.1 Requirements
There is no requirement for the operating environment, transmission networking, and license.
11.5.2 Precautions
None
11.5.3 Data Preparation
This section describes the data that you need to collect for setting parameters. Required data is data that you must collect for all scenarios. Collect scenario-specific data when
necessary for a specific feature deployment scenario.
11.5.3.1 Required Data
The following parameter describes the parameter that must be set in a CellAlgoSwitch MO to configure enhanced UL frequency selective scheduling.
Parameter Name
Parameter ID
Setting Notes
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
Select the UlEnhancedFssSwitch option of this parameter.
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure search direction randomization for the sliding window in UL frequency
selective scheduling.
Parameter Name
Parameter ID
Setting Notes
Uplink Schedule Extended Switch
CellAlgoSwitch.UlSchExtSwitch
Select the UlFssWindSearchDirRandSw option of this parameter when any
of the following conditions is met:
• The SRSCFG.SrsCfgInd parameter is set to BOOLEAN_FALSE
(False).
• The SRSCFG.SrsCfgInd parameter is set to BOOLEAN_TRUE
(True) and the SRSCFG.FddSrsCfgMode parameter is set to
ADAPTIVEMODE(Adaptive Mode).
11.5.3.2 Scenario-specific Data
11.5.3.2.1 UL Frequency Selective Scheduling Based on the Estimated UE Speed
The following table describes the parameter that must be set in a CellAlgoSwitch MO to activate UL frequency selective scheduling based on the estimated UE speed for a cell.
Parameter Name
Parameter ID
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
Setting Notes
Parameter Name
Parameter ID
Setting Notes
UlEnhancedDopplerSwitch under this parameter specifies whether to
enable UL frequency selective scheduling based on the estimated UE speed.
It is recommended that this switch be set to OFF.
11.5.3.2.2 Interference-based Frequency Selective Scheduling
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure UL interference-based frequency selective scheduling.
Parameter Name
Parameter ID
Setting Notes
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
You are advised to select the UlInterfFssSwitch(UlInterfFssSwitch) option
of this parameter to enable interference-based frequency selective
scheduling when SRS configuration is disabled or adaptive for the cell and
the interference to the PUSCH in the cell is greater than –110 dBm.
This option takes effect only when the CellUlschAlgo.UlRbAllocationStrategy
parameter is set to FS_INRANDOM_ADAPTIVE(Fs InRandom Strategy).
11.5.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Enabling enhanced UL frequency selective scheduling
1. Run the MOD CELLALGOSWITCH command with the UlEnhancedFssSwitch(UlEnhancedFssSwitch) option of the Uplink schedule switch parameter
selected.
2. (Optional) Run the MOD CELLALGOSWITCH command with the UlFssWindSearchDirRandSw(UlFssWindSearchDirRandSw) option of the Uplink
Schedule Extended Switch parameter selected.
• Enabling interference-based UL frequency selective scheduling
Run the MOD CELLALGOSWITCH command with the UlInterfFssSwitch(UlInterfFssSwitch) option of the Uplink schedule switch parameter selected.
• Enabling optimized UL frequency selective scheduling based on the estimated UE speed
Run the MOD CELLALGOSWITCH command with the UlEnhancedDopplerSwitch(UlEnhancedDopplerSwitch) option of the Uplink schedule switch parameter
selected.
MML Command Examples
• Enabling enhanced UL frequency selective scheduling
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlEnhancedFssSwitch-1;
//(Optional) Setting UlFssWindSearchDirRandSw on
MOD CELLALGOSWITCH:LOCALCELLID=0,UlSchExtSwitch=UlFssWindSearchDirRandSw-1;
• Enabling interference-based UL frequency selective scheduling
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlInterfFssSwitch-1;
• Enabling optimized UL frequency selective scheduling based on the estimated UE speed
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlEnhancedDopplerSwitch-1;
11.5.5 Activation Observation
Observing Enhanced UL Frequency Selective Scheduling (Using Performance Counters)
This section describes how to observe whether enhanced UL frequency selective scheduling has taken effect by using an example wherein a cell with a bandwidth of 20 MHz
has admitted over 15 UEs.
NOTE:
Both basic UL frequency selective scheduling and enhanced UL frequency selective scheduling use the same counter (L.ChMeas.PRB.UL.FSS.Avg) for activation observation.
Ensure that basic UL frequency selective scheduling does not take effect (more than 15 UEs admitted to the cell) when you observe enhanced UL frequency selective
scheduling using L.ChMeas.PRB.UL.FSS.Avg.
Check the value of the counter listed in Table 11-1. If this counter value is not zero, enhanced UL frequency selective scheduling has taken effect.
Table 11-1 Counters related to enhanced UL frequency selective scheduling
Counter Name
Description
L.ChMeas.PRB.UL.FSS.Avg
Average number of PRBs allocated for uplink frequency selective scheduling.
NOTE:
When CellUlschAlgo.UlRbAllocationStrategy is set to FS_INRANDOM_ADAPTIVE, the value of L.ChMeas.PRB.UL.Used.Avg minus L.ChMeas.PRB.UL.FSS.Avg indicates the
number of RBs that have been used for interference-randomization-based scheduling.
11.5.6 Reconfiguration
None
11.5.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Disabling enhanced UL frequency selective scheduling
1. Run the MOD CELLALGOSWITCH command with the UlEnhancedFssSwitch option of the Uplink schedule switch parameter deselected.
2. (Optional) Run the MOD CELLALGOSWITCH command with the UlFssWindSearchDirRandSw option of the Uplink Schedule Extended Switch
parameter deselected.
• Disabling interference-based UL frequency selective scheduling
Run the MOD CELLALGOSWITCH command with the UlInterfFssSwitch option of the Uplink schedule switch parameter deselected.
• Disabling optimized UL frequency selective scheduling based on the estimated UE speed
Run the MOD CELLALGOSWITCH command with the UlEnhancedDopplerSwitch option of the Uplink schedule switch parameter deselected.
MML Command Examples
• Disabling enhanced UL frequency selective scheduling
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlEnhancedFssSwitch-0;
//(Optional) Setting UlFssWindSearchDirRandSw off
MOD CELLALGOSWITCH:LOCALCELLID=0,UlSchExtSwitch=UlFssWindSearchDirRandSw-0;
• Disabling interference-based UL frequency selective scheduling
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlInterfFssSwitch-0;
• Disabling optimized UL frequency selective scheduling based on the estimated UE speed
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlEnhancedDopplerSwitch-0;
11.6 Deploying MBR>GBR Configuration
11.6.1 Requirements
There is no requirement for the operating environment, transmission networking, and license.
11.6.2 Precautions
None
11.6.3 Data Preparation
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure the MBR>GBR Configuration feature.
Parameter Name
Parameter ID
Setting Notes
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
Set UlMbrCtrlSwitch of this parameter to enable or disable the MBR>GBR
Configuration feature.
11.6.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
Run the MOD CELLALGOSWITCH command with the UlMbrCtrlSwitch option of the Uplink schedule switch parameter selected.
MML Command Examples
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlMbrCtrlSwitch-1;
11.6.5 Activation Observation
This section describes the activation observation procedure using a commercial UE in a cell with a 20 MHz bandwidth.
1. Provision a UL GBR service for one UE. Set the GBR and MBR to 20 Mbit/s and 40 Mbit/s, respectively. Initiate a service with the data rate greater than the MBR on
the UE.
2. Start throughput monitoring on the U2000: Choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose LTE
> User Performance Monitoring > Throughput Monitoring.
3. Start RB usage monitoring on the U2000: Choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose LTE >
Cell Performance Monitoring > Usage of RB Monitoring.
4. Disable the MBR>GBR Configuration feature. The GBR service rate approaches the GBR (20 Mbit/s) even when the cell has vacant RBs, as shown in Figure 11-1.
Figure 11-1 Example of RB usage and throughput monitoring (MBR>GBR Configuration disabled)
5. Enable the MBR>GBR Configuration feature. The GBR service rate can range from the GBR to the MBR when the cell has vacant RBs. See Figure 11-2.
Figure 11-2 Example of RB usage and throughput monitoring (MBR>GBR Configuration enabled)
11.6.6 Reconfiguration
None
11.6.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
Run the MOD CELLALGOSWITCH command with the UlMbrCtrlSwitch option of the Uplink schedule switch parameter deselected.
MML Command Examples
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlMbrCtrlSwitch-0;
11.7 Performance Monitoring
Observe the resource occupation ratio on the PUSCH and throughput of GBR services with different QCIs.
• Calculate the resource occupation ratio on the PUSCH using the following formula:
L.ChMeas.PRB.UL.Used.Avg/L.ChMeas.PRB.UL.Avail
• Observe throughput of GBR services with different QCIs:
◾ L.Thrp.bits.UL.QCI.1
◾ L.Thrp.bits.UL.QCI.2
◾ L.Thrp.bits.UL.QCI.3
◾ L.Thrp.bits.UL.QCI.4
The EPC configures the GBR and MBR specific to GBR services. If the resource occupation ratio on the PUSCH is less than or equal to 50% and there is a GBR service whose
data rate is greater than the configured GBR, check whether the data rate of the GBR service increases after the MBR>GBR Configuration feature is activated.
If so, the MBR>GBR Configuration feature has taken effect.
11.8 Parameter Optimization
N/A
11.9 Possible Issues
N/A
12
Engineering Guidelines for Enhanced UL Scheduling Features
This chapter provides engineering guidelines for the following features:
• LBFD-00101502 Dynamic Scheduling
• LOFD-110205 Traffic Model Based Performance Optimization
12.1 When to Use
12.1.1 LBFD-00101502 Dynamic Scheduling
Enhanced Scheduling Policy
See 10.1.2 LBFD-00101502 Dynamic Scheduling.
SINR Adjustment
SINR adjustment is recommended for use. It is similar to CQI adjustment for DL scheduling. The SINR adjustment feature corrects UL SINR measurement errors and combats
channel condition changes during the time between SINR measurement and scheduling. SINR adjustment enables the UL IBLER to converge on the target value, therefore
increasing UL throughput.
You are advised to enable target IBLER adaptation in SINR adjustment to improve UL throughput.
UL Preallocation
UL smart preallocation is a sub-function of UL preallocation and is recommended for use.
UL preallocation increases the number of times the eNodeB proactively schedules UEs. This shortens the duration when UL data is buffered on UEs and quickens the response
to UE services, thereby improving user experience.
While improving user experience, UL smart preallocation minimizes UL resource consumption and impact on UL services.
UL smart preallocation decreases signaling overheads on the PDCCH, UE power consumption, and UL interference. However, UL smart preallocation may reduce the web
browsing rate slightly.
PUSCH DTX Detection
PUSCH DTX detection is recommended for use.
The PUSCH DTX detection result is used for adaptive retransmissions in UL scheduling, thereby saving UL resources and increasing throughput.
Scenario-specific False SRI Detection Threshold Configuration
Scenario-specific false SRI detection threshold configuration is recommended for use.
When scenario-specific false SRI detection threshold configuration is enabled and UEs enter the DRX state, an optimized false SRI detection threshold is used at the physical
layer so that the probability of SRI false alarms is reduced. This increases the MCS index for UEs in the DRX state and decreases the increment of BLER caused by SRI false
alarms.
Scheduling Termination for Abnormal UEs
For details about when to enable scheduling termination for abnormal UEs, see 10.1.2 LBFD-00101502 Dynamic Scheduling.
PDCCH and PUSCH Resource Balancing
The function of PDCCH and PDSCH resource balancing is recommended when the following conditions are met:
• The number of UEs in RRC_CONNECTED mode is large. For example, the number is greater than 200.
• PDCCH congestion occurs. For example the PDCCH CCE usage is greater than 70%.
• The PUSCH resource usage is low. For example, the UL PRB usage is less than 80%.
PUCCH RB Occupation by PUSCH
PUCCH RB occupation by PUSCH increases the PUCCH interference against neighboring cells. It is recommended that this function be disabled on commercial networks.
Enable this function only when testing UL throughput in a cell serving only one user.
12.1.2 LOFD-110205 Traffic Model Based Performance Optimization
This feature is recommended when the cell traffic load is high (PRB usage > 60%).
You are advised to enable the Traffic Model Based Performance Optimization feature in the uplink and downlink at the same time. For details about deploying this feature in the
downlink, see 10.7 Deploying the Traffic Model Based Performance Optimization Feature.
12.2 Required Information
None
12.3 Deploying Dynamic Scheduling
12.3.1 Requirements
Operating Environment
PUSCH DTX detection is not supported in the following scenarios:
• The configured BBP is LBBPc and the SRSCfg.SrsCfgInd parameter is set to False.
• The configured BBP is LBBPc and four or eight RX antennas are used.
• The configured BBP is LBBPc and the UE is an MU-MIMO paired UE.
• The SRSCfg.SrsCfgInd parameter is set to False on the BTS3202E.
Transmission Networking
N/A
License
N/A
12.3.2 Precautions
None
12.3.3 Data Preparation
This section describes the data that you need to collect for setting parameters. Required data is data that you must collect for all scenarios. Collect scenario-specific data when
necessary for a specific feature deployment scenario.
12.3.3.1 Required Data
The following table describes the parameters that must be set in a CellUlschAlgo MO to specify the UL scheduling policy.
Table 12-1 Parameters that must be set in a CellUlschAlgo MO
Parameter Name
Parameter ID
Setting Notes
Uplink Scheduling Strategy
CellUlschAlgo.UlschStrategy
This parameter specifies the UL scheduling policy. There are four policies: Max
C/I, RR, PF, and EPF. Select EPF as the enhanced scheduling policy.
Uplink EPF capacity factor
CellUlschAlgo.UlEpfCapacityFactor
This parameter specifies the UL EPF scheduling capacity factor. This parameter
affects the scheduling priority of UEs that run GBR services with QCI 1, 2, 3, or
4 whose data rates do not meet their GBRs. This parameter also affects the
scheduling priority of UEs that run non-GBR services with QCI 6, 7, 8, or 9.
Under these conditions, the cell capacity and fairness can be adjusted.
12.3.3.2 Scenario-specific Data
12.3.3.2.1 QCI Configurations for UL Non-GBR Services
The following table describes the parameters that must be set in the QciPara MO to specify QCI parameters for UL non-GBR services.
Parameter Name
Parameter ID
Setting Notes
QoS Class Identifier
QciPara.Qci
Set this parameter according to operators' policies.
Prioritised Bit Rate
QciPara.PrioritisedBitRate
If this parameter is set to PBR_0_KBps(0KB/s), there is a risk that
services with the QCI will never be scheduled. If this parameter is
set to PBR_INFINITY(Infinity) and the traffic volume of services
with the QCI is high, there is a risk that services with QCIs
indicating lower priorities than this QCI will never be scheduled.
The default value is recommended for normally operating networks.
Logical Channel Priority
QciPara.LogicalChannelPriority
Services with relatively high priorities are preferentially scheduled.
The default value is recommended for normally operating networks.
The following table describes the parameter that must be set in the GlobalProcSwitch MO to specify whether QCI-related parameters take effect.
Parameter Name
Parameter ID
Setting Notes
QCI Parameter Effect Flag
GlobalProcSwitch.QciParaEffectFlag
Set this parameter to ON.
12.3.3.2.2 UL Min-GBR Guarantee
The following tables describe the parameters that must be set in CellAlgoSwitch and QciPara MOs to enable UL Min-GBR guarantee.
Table 12-2 Parameter that must be set in a CellAlgoSwitch MO
Parameter Name
Parameter ID
Setting Notes
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
UlMinGbrSwitch under this parameter specifies whether to guarantee a
minimum rate for UL non-GBR services.
• If this switch is off, no minimum rate is guaranteed for UL non-GBR
services. In worst cases, service drops may occur.
• If this switch is on, the QCI-specific Min-GBR is guaranteed for UL
non-GBR services and therefore the probability of service drops
decreases. However, turning on this switch may reduce cell
capacity because the Min-GBR for users at cell edge is
guaranteed.
The default value is recommended for normally operating networks.
Table 12-3 Parameter that must be set in a QciPara MO
Parameter Name
Parameter ID
Setting Notes
Uplink MinGBR
QciPara.UlMinGbr
If this parameter is set to a large value and resources are insufficient, highpriority non-GBR services can reach their Min-GBR but low-priority nonGBR services may not reach their Min-GBR.
If this parameter is set to a small value, the response time for non-GBR
services may be affected.
The default value is recommended for normally operating networks.
The following table describes the parameter that must be set in the GlobalProcSwitch MO to specify whether QCI-related parameters take effect.
Parameter Name
Parameter ID
Setting Notes
QCI Parameter Effect Flag
GlobalProcSwitch.QciParaEffectFlag
Set this parameter to ON.
12.3.3.2.3 Logical Channel Group
The following table describes the parameter that must be set in the GlobalProcSwitch MO to configure logical channel groups.
Table 12-4 Parameter that must be set in the GlobalProcSwitch MO
Parameter Name
Parameter ID
Setting Notes
LCG Profile
GlobalProcSwitch.LcgProfile
If this parameter is set to LCG_PROFILE_1, QoS requirements of
high-priority non-GBR services are better fulfilled, but it may fail to
meet QoS requirements of low-priority non-GBR services.
When this parameter is set to LCG_PROFILE_1, do not configure
VoLTE services.
When this parameter is set to LCG_PROFILE_2, do not configure
GBR services.
12.3.3.2.4 SINR Adjustment
This section describes the parameters that must be set in CellAlgoSwitch and CellUlschAlgo MOs to configure the SINR adjustment function.
Table 12-5 Parameter that must be set in a CellAlgoSwitch MO
Parameter Name
Parameter ID
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
Setting Notes
• SinrAdjustSwitch(SinrAdjustSwitch) specifies whether to
activate SINR adjustment.
It is recommended that SinrAdjustSwitch(SinrAdjustSwitch)
under this parameter be selected.
• UlIblerAdjustSwitch specifies whether the eNodeB adaptively
adjusts the UL IBLER in SINR adjustment.
• PuschDtxSwitch under this parameter specifies whether the
eNodeB uses PUSCH DTX detection results during UL scheduling.
If this switch is turned on, the eNodeB determines whether to
perform an adaptive retransmission during UL scheduling based on
the PUSCH DTX detection result. The eNodeB also adjusts the
CCE aggregation level of the PDCCH carrying DCI format 0 based
on the same result.
PUSCH DTX detection is recommended for use.
• UlEnhancedSrSchSwitch(UlEnhancedSrSchSwitch) specifies
whether the eNodeB performs UL SR-based scheduling
optimization. If this switch is on, the eNodeB determines whether to
stop SR re-scheduling based on the PUSCH DTX detection result.
For a UE in DRX mode, SR re-scheduling is performed only during
long DRX cycles.
Table 12-6 Parameters that must be set in a CellUlschAlgo MO
Parameter Name
Parameter ID
Setting Notes
SINR target IBLER adjustment
CellUlschAlgo.SinrAdjustTargetIbler
It is recommended that this parameter be set to 10.
PUSCH DTX Scheduling Strategy
CellUlschAlgo.PuschDtxSchStrategy
This parameter is valid only when the PuschDtxSwitch option of the
CellAlgoSwitch.UlSchSwitch parameter is selected.
It is recommended that this parameter be set to EN_ADAPTIVE_RETX
(EN_ADAPTIVE_RETX).
Uplink Target IBLER Adapt Type
CellUlschAlgo.UlTargetIBlerAdaptType
It is recommended that SinrFlunIBlerAdaptSwitch and
SinrJumpIBlerAdaptSwitch of this parameter be selected.
IBLER Adapt Big Packet Switch
CellUlschAlgo.UlIBlerAdaptBigTrafficSw
It is recommended that this parameter be set to ON(On).
12.3.3.2.5 UL Preallocation
This section describes the parameters that must be set in the CellAlgoSwitch, CellUlschAlgo, QciPara, CellQciPara, GlobalProcSwitch, and CellPreallocGroup MOs to
configure preallocation.
Table 12-7 Parameter that must be set in a CellAlgoSwitch MO
Parameter Name
Parameter ID
Setting Notes
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
In normal operation scenarios, you are advised to select both the
PreAllocationSwitch(PreAllocationSwitch) and
SmartPreAllocationSwitch(SmartPreAllocationSwitch) options
of this parameter to enable UL smart preallocation.
Uplink Schedule Extended Switch
CellAlgoSwitch.UlSchExtSwitch
You are advised to select the EnhancedSchForSparseSwitch
(EnhancedSchForSparseSwitch) option.
The parameters in the following tables need to be set when the PreAllocationSwitch option is selected.
Table 12-8 Parameters that must be set in a CellUlschAlgo MO
Parameter Name
Parameter ID
Setting Notes
Uplink Enhanced VoIP Schedule Switch CellUlschAlgo.UlEnhencedVoipSchSw
You are advised to retain the default setting of the
UlVoipPreAllocationSwitch option.
System Bandwidth Ratio Used By Preschedule user per TTI
CellUlschAlgo.PreAllocationBandwidthRatio
If the cell bandwidth is 1.4 MHz, the recommended value of this
parameter is 50. If the cell bandwidth is not 1.4 MHz, the
recommended value of this parameter is 25.
minimal period of pre-allocation
CellUlschAlgo.PreAllocationMinPeriod
The value 5 is recommended.
data size of pre-allocation
CellUlschAlgo.PreAllocationSize
The value 80 is recommended.
Smart pre-allocation duration
CellUlschAlgo.SmartPreAllocationDuration
This parameter takes effect only when smart preallocation is
enabled. The value 50 is recommended.
Sparse Smart Pre-allocation Duration
CellUlschAlgo.SmartPreAllocDuraForSparse
This parameter takes effect only when smart preallocation is
enabled. The value 1500 is recommended.
Minimal Period of Sparse Pre-allocation
CellUlschAlgo.PreAllocMinPeriodForSparse
The value SAME_AS_OTHER_SERVICE
(SAME_AS_OTHER_SERVICE) is recommended.
Data Size of Sparse Pre-allocation
CellUlschAlgo.PreallocationSizeForSparse
The value SAME_AS_OTHER_SERVICE
(SAME_AS_OTHER_SERVICE) is recommended.
Table 12-9 Parameters that must be set in a QciPara MO
Parameter Name
Parameter ID
Setting Notes
QoS Class Identifier
QciPara.Qci
None
Pre-allocation weight
QciPara.PreAllocationWeight
The default value is recommended for normally operating networks.
Table 12-10 Parameters that must be set in a CellQciPara MO
Parameter Name
Parameter ID
Setting Notes
QoS Class Indication
CellQciPara.Qci
None
Preallocation Parameter Group ID
CellQciPara.PreallocationParaGroupId This parameter specifies the preallocation parameter group ID that the QCI
corresponds to. This parameter is consistent with the
CellPreallocGroup.PreallocationParaGroupId parameter in the CellPreallocGroup
MO, which includes the parameters of preallocation switch, smart preallocation
switch, minimum preallocation interval, preallocation data volume, and duration
of smart preallocation.
The parameter values 0 to 9 are indexes of the specific preallocation parameter
groups. If the corresponding preallocation parameter group does not exist,
configuration of a parameter group fails and an error is returned.
The parameter value 255 indicates that the QCI does not correspond to any
preallocation parameter group.
The recommended value is 255, which means that the QCI-level parameter
group for smart preallocation is disabled.
Table 12-11 Parameter that must be set in the GlobalProcSwitch MO
Parameter Name
Parameter ID
Setting Notes
QCI Parameter Effect Flag
GlobalProcSwitch.QciParaEffectFlag Set this parameter to ON.
Table 12-12 Parameters that must be set in a CellPreallocGroup MO
Parameter Name
Parameter ID
Setting Notes
Preallocation Parameter Group ID
CellPreallocGroup.
This parameter identifies a preallocation parameter group.
PreallocationParaGroupId
Preallocation Switch
CellPreallocGroup.
PreallocationSwitch
Smart Preallocation Switch
CellPreallocGroup.
SmartPreallocationSwitch
Minimal Period of Preallocation
CellPreallocGroup.
PreallocationMinPeriod
Data Size of Preallocation
CellPreallocGroup.
PreallocationSize
This parameter specifies whether to enable preallocation for a bearer with the
specified preallocation parameter group ID.
This parameter specifies whether to enable smart preallocation for a bearer with
the specified preallocation parameter group ID. UL smart preallocation is enabled
for the parameter group only when this parameter and the
CellPreallocGroup.PreallocationSwitch parameter are both set to ON.
This is a bearer-level switch and it takes effect only when the cell-level
preallocation switch PreAllocationSwitch under the
CellAlgoSwitch.UlSchSwitch parameter is set on.
It is recommended that this switch be set to ON for normally operating networks.
This parameter specifies the minimum interval between two preallocations. That
is, the actual interval between two preallocations of a UE must be longer than or
equal to the value of this parameter.
The default value is recommended for normally operating networks.
This parameter specifies the data volume of each preallocation for the bearer
configured with the parameter group ID.
The default value is recommended for normally operating networks.
Parameter Name
Parameter ID
Setting Notes
Smart Preallocation Duration
CellPreallocGroup.
This parameter specifies the duration of each smart preallocation for the bearer
configured with the parameter group ID.
The parameter value 50 is recommended for normally operating networks.
SmartPreallocationDuration
12.3.3.2.6 Setting the SRI False Alarm Detection Threshold
The following table describes parameter that must be set in a CellUlschAlgo MO to set the SRI false alarm detection threshold.
Table 12-13 Parameter that must be set in a CellUlschAlgo MO
Parameter Name
Parameter ID
Setting Notes
Sri False Detect Threshold Switch
CellUlschAlgo.SriFalseDetThdSwitch
This parameter specifies whether to set the SRI false alarm detection
threshold specially for UEs in the discontinuous reception (DRX) state. When
this parameter is set to ON(On) and UEs enter the DRX state, the SRI false
alarm detection threshold with a 0.5% probability of false alarms is used at
the physical layer. When this parameter is set to ON(On) and UEs exit the
DRX state, the SRI false alarm detection threshold with a 1% probability of
false alarms is used at the physical layer. When this parameter is set to OFF
(Off), the SRI false alarm detection threshold with a 1% probability of false
alarms is always used at the physical layer.
12.3.3.2.7 Scheduling Termination for Abnormal UEs
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure the function of scheduling termination for abnormal UEs.
Table 12-14 Parameter that must be set in a CellAlgoSwitch MO
Parameter Name
Parameter ID
Setting Notes
Cell Schedule Strategy Switch
CellAlgoSwitch.CellSchStrategySwitch
AbnUeSchSwitch specifies whether to enable the function of
scheduling termination for abnormal UEs.
The following table describes the parameter that must be set in a CellUlschAlgo MO to configure the threshold for scheduling termination for abnormal UEs in the UL.
Table 12-15 Parameter that must be set in a CellUlschAlgo MO
Parameter Name
Parameter ID
Setting Notes
Uplink Schedule Abnormal Ue
Threshold
CellUlschAlgo.UlSchAbnUeThd
This parameter specifies the threshold of consecutive CRC failures
when the eNodeB determines that the UE link is abnormal. The default
value is recommended.
12.3.3.2.8 Scheduler-controlled Power
This section describes the parameters that must be set in a CellAlgoSwitch MO and an eNodeBAlgoSwitch MO to enable the scheduler-controlled power function.
Table 12-16 Parameter that must be set in a CellAlgoSwitch MO
Parameter Name
Parameter ID
Setting Notes
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
The SchedulerCtrlPowerSwitch option of this parameter specifies whether
to enable the scheduler-controlled power function.
When this option is deselected, the scheduler considers power control
restrictions while performing scheduling. The number of RBs allocated by
the scheduler does not exceed the limit defined by the power control
module, ensuring a constant PSD.
When this option is selected, the scheduler performs scheduling without
considering power control restrictions. The number of RBs is flexibly
allocated by the scheduler to make full use of PRB resources.
It is recommended that this option be selected.
Uplink Schedule Extended Switch
CellAlgoSwitch.UlSchExtSwitch
When the SchedulerCtrlPowerSwitch option is selected:
• The UlDataFitterRbCalcSwitch option of this parameter specifies
whether to enable the algorithm of accurate RB calculation based
on uplink data volume matching to increase network capacity.
It is recommended that this option be selected.
• The UlSchCtrlPwrUserSetOptSw option of this parameter
specifies whether to enable optimization of UE set selection.
It is recommended that this option be selected.
Table 12-17 Parameter that must be set in an eNodeBAlgoSwitch MO
Parameter Name
Parameter ID
Setting Notes
UL Resource Management Optimization Switch
eNodeBAlgoSwitch.UlResManageOptSw
The UL_RBCALC_OPT_SWITCH option of this
parameter specifies whether to optimize the RB
quantity calculation based on channel
characteristics in the case of power limitation. It is
recommended that this option be selected for
throughput tests of UEs running large-packet
services in the UL.
12.3.3.2.9 PDCCH and PUSCH Resource Balancing
The following table describes the parameters that must be set in a CellUlschAlgo MO to configure PDCCH and PUSCH resource balancing.
Table 12-18 Parameters that must be set in a CellUlschAlgo MO
Parameter Name
Parameter ID
Ue Num Threshold in PDCCH
PUSCH Balance
CellUlschAlgo.UeNumThdInPdcchPuschBal This parameter specifies the threshold of the number of cell-level users for
triggering PDCCH and PUSCH resource balancing.
Set this parameter based on the network plan.
It is recommended that this parameter be set to 200 if the cell serves more than
200 users and UL RBs are not fully used due to insufficient PDCCH CCEs. In this
way, PDCCH and PUSCH resource balancing takes effect, improving UL
throughput and RB utilization.
Setting Notes
Data Threshold in PDCCH and
PUSCH Balance
CellUlschAlgo.DataThdInPdcchPuschBal
This parameter specifies the threshold of the data volume for triggering PDCCH
and PUSCH resource balancing.
Set this parameter based on the network plan.
12.3.3.2.10 UL RLC Segment Reduction
This section describes the parameters that must be set in the CellAlgoSwitch and CellUlschAlgo MOs to configure the RLC segment reduction function.
Table 12-19 Parameter that must be set in a CellAlgoSwitch MO
Parameter Name
Parameter ID
Setting Notes
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
UlSmallRBSpectralEffOptSw specifies whether to optimize the spectral
efficiency in small-RB allocation to reduce the size of UL RLC segments.
If this switch is set to OFF, a low spectral efficiency in small-RB allocation
may cause RLC segmentation.
If this switch is set to ON, a low spectral efficiency in small-RB allocation
does not cause RLC segmentation.
Table 12-20 Parameter that must be set in a CellUlschAlgo MO
Parameter Name
Parameter ID
Setting Notes
Head Overhead For Uplink Scheduling
CellUlschAlgo.HeadOverheadForUlSch
This parameter specifies the header overhead estimated by UL scheduling.
The parameter values indicate different BSR and PHR overheads and RLC
head overheads.
12.3.3.2.11 PUCCH RB Occupation by PUSCH
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure PUCCH RB occupation by PUSCH.
Table 12-21 Parameter that must be set in a CellAlgoSwitch MO
Parameter Name
Parameter ID
Setting Notes
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
PuschUsePucchRbSwitch specifies whether PUCCH RBs can be
occupied by the PUSCH.
If PuschUsePucchRbSwitch is deselected, PUCCH RBs cannot be used
for user data transmission in UL scheduling. If PuschUsePucchRbSwitch
is selected, PUCCH RBs can be used for user data transmission in UL
scheduling when the cell serves only one user.
Select PuschUsePucchRbSwitch only when testing UL throughput in a cell
serving only one user. Do not select PuschUsePucchRbSwitch in other
scenarios.
12.3.3.2.12 Proactive Scheduling for Uplink Signaling
The following table describes the parameter that must be set in a CellAlgoSwitch MO to enable proactive scheduling for uplink signaling.
Table 12-22 Parameter that must be set in a CellAlgoSwitch MO
Parameter Name
Parameter ID
Setting Notes
Uplink Schedule Extended Switch
CellAlgoSwitch.UlSchExtSwitch
For details about the principles, see 5.4.1.3 Proactive Scheduling for Uplink
Signaling. It is recommended that this parameter be set to the default value.
12.3.3.2.13 Data Amount Adaptation in UL SR-based Scheduling
This section describes the parameters that must be set in a CellAlgoSwitch MO and a CellUlschAlgo MO to enable data amount adaptation in UL SR-based scheduling.
Table 12-23 Parameter that must be set in a CellAlgoSwitch MO
Parameter Name
Parameter ID
Setting Notes
Uplink schedule switch
CellAlgoSwitch.UlSchSwitch
Select the SrSchDataAdptSw option of this parameter.
Table 12-24 Parameter that must be set in a CellUlschAlgo MO
Parameter Name
Parameter ID
Setting Notes
UL SR Scheduling Data Vol Adapt Opt CellUlschAlgo.UlSrSchDataVolAdptOptUpThd Set this parameter to 2000 if the UL PRB usage is greater than 90%. Set
Upper Thld
this parameter to 0 in other situations.
12.3.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Setting the enhanced UL scheduling policy
Run the MOD CELLULSCHALGO command with the Uplink Scheduling Strategy parameter specified.
• Configuring the QCI for UL non-GBR services
1. Run the MOD QCIPARA command with the QoS Class Identifier, Prioritised Bit Rate, and Logical Channel Priority parameters specified.
2. Run the MOD GLOBALPROCSWITCH command with the QCI Parameter Effect Flag parameter set to ON(On).
• Enabling the UL Min-GBR guarantee function
1. Run the MOD CELLALGOSWITCH command with the UlMinGbrSwitch option of the Uplink schedule switch parameter selected.
2. Run the MOD QCIPARA command with the Uplink MinGBR parameter specified.
3. Run the MOD GLOBALPROCSWITCH command with the QCI Parameter Effect Flag parameter set to ON(On).
• Setting the logical channel group profile
Run the MOD GLOBALPROCSWITCH command with the LCG Profile parameter specified.
• Enabling SINR adjustment
Run the MOD CELLALGOSWITCH command with the SinrAdjustSwitch and PuschDtxSwitch options of the Uplink schedule switch parameter selected.
Run the MOD CELLULSCHALGO command with the PUSCH DTX Scheduling Strategy parameter specified.
• Enabling UL target IBLER adaptation
1. Run the MOD CELLALGOSWITCH command with the UlIblerAdjustSwitch option of the Uplink schedule switch parameter selected.
2. Run the MOD CELLULSCHALGO command with the Uplink Target IBLER Adapt Type and IBLER Adapt Big Packet Switch parameters appropriately
set.
• Enabling scenario-specific false SRI detection threshold configuration
Run the MOD CELLULSCHALGO command with the Sri False Detect Threshold Switch parameter set to ON(On).
• Enabling cell-level preallocation
1. Run the MOD CELLALGOSWITCH command with the PreAllocationSwitch option of the Uplink schedule switch parameter selected.
2. Run the MOD CELLALGOSWITCH command with the SmartPreAllocationSwitch option of the Uplink schedule switch parameter selected.
3. Run the MOD CELLULSCHALGO command with the Smart Preallocation Duration, Sparse Smart Pre-allocation Duration, Minimal Period of Sparse
Pre-allocation, and Data Size of Sparse Pre-allocation parameters specified.
4. Run the MOD CELLALGOSWITCH command with the EnhancedSchForSparseSwitch option of the Uplink Schedule Extended Switch parameter
selected.
5. Run the MOD CELLULSCHALGO command with the UlVoipPreAllocationSwitch option of the Uplink Enhanced VoIP Schedule Switch parameter
selected.
• Enabling QCI-level preallocation
1. Run the ADD CELLPREALLOCGROUP command to configure a preallocation parameter group.
2. Run the MOD CELLQCIPARA command with the Preallocation Parameter Group ID parameter specified.
3. Run the MOD GLOBALPROCSWITCH command with the QCI Parameter Effect Flag parameter set to ON(On).
• Enabling enhanced UL SR-based scheduling
Run the MOD CELLALGOSWITCH command with the UlEnhancedSrSchSwitch option of the Uplink schedule switch parameter selected.
• Enabling data amount adaptation in UL SR-based scheduling
Run the MOD CELLALGOSWITCH command with the SrSchDataAdptSw option of the Uplink schedule switch parameter selected.
• Enabling the function of scheduling termination for abnormal UEs
1. Run the MOD CELLALGOSWITCH command with the AbnUeSchSwitch option of the Cell Schedule Strategy Switch parameter selected.
2. Run the MOD CELLULSCHALGO command with the Uplink Schedule Abnormal Ue Threshold parameter specified.
• Enabling the function of scheduler-controlled power
Run MOD CELLALGOSWITCH and MOD ENODEBALGOSWITCH to configure the function of scheduler-controlled power.
• Enabling PDCCH and PUSCH resource balancing
Run the MOD CELLULSCHALGO command with the Ue Num Threshold in PDCCH PUSCH Balance and Data Threshold in PDCCH and PUSCH Balance
parameters specified.
• Enabling the function of UL RLC segment reduction
1. Run the MOD CELLALGOSWITCH command with the UlSmallRBSpectralEffOptSw option of the Uplink schedule switch parameter selected.
2. Run the MOD CELLULSCHALGO command with the Head Overhead For Uplink Scheduling parameter specified.
• Enabling the function of PUCCH RB occupation by PUSCH
Run the MOD CELLALGOSWITCH command with the PuschUsePucchRbSwitch option of the Uplink schedule switch parameter selected.
• Enabling proactive scheduling of UL signaling
Run the MOD CELLALGOSWITCH command with the SrbProbeSchSwitch option of the Uplink Schedule Extended Switch parameter selected.
MML Command Examples
• Setting the enhanced UL scheduling policy
MOD CELLULSCHALGO: LOCALCELLID=0, ULSCHSTRATEGY=ULSCH_STRATEGY_EPF;
• Configuring the QCI for UL non-GBR services
MOD QCIPARA:QCI=QCI6,PRIORITISEDBITRATE=PBR_8_KBps,LOGICALCHANNELPRIORITY=9;
MOD GLOBALPROCSWITCH: QciParaEffectFlag=ON;
• Enabling the UL Min-GBR guarantee function
//Setting UlMinGbrSwitch on
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlMinGbrSwitch-1;
//Setting the UL Min-GBR
MOD QCIPARA:QCI=QCI6,ULMINGBR=MinGbrRate_1_KB;
MOD GLOBALPROCSWITCH: QciParaEffectFlag=ON;
• Setting the logical channel group profile
MOD GLOBALPROCSWITCH: LCGPROFILE=LCG_PROFILE_0;
• Enabling SINR adjustment
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=SinrAdjustSwitch-1&PuschDtxSwitch-1;
MOD CELLULSCHALGO:LOCALCELLID=0,PUSCHDTXSCHSTRATEGY=EN_ADAPTIVE_RETX;
• Enabling UL target IBLER adaptation
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlIblerAdjustSwitch-1;
MOD CELLULSCHALGO:LOCALCELLID=0,ULTARGETIBLERADAPTTYPE=SinrFlunIBlerAdaptSwitch-1&SinrJumpIBlerAdaptSwitch-1;
//Enabling UL target IBLER adaptation only for UEs with constant large packets
MOD CELLULSCHALGO: LOCALCELLID=0, ULIBLERADAPTBIGTRAFFICSW=ON;
//Enabling UL target IBLER adaptation to take effect on all UEs in the cell
MOD CELLULSCHALGO: LOCALCELLID=0, ULIBLERADAPTBIGTRAFFICSW=OFF;
• Enabling scenario-specific false SRI detection threshold configuration
MOD CELLULSCHALGO: LOCALCELLID=0, SRIFALSEDETTHDSWITCH=ON;
• Enabling cell-level preallocation
//Enabling UL preallocation
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=PreAllocationSwitch-1;
//Enabling UL smart preallocation
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=PreAllocationSwitch-1&SmartPreAllocationSwitch-1;
MOD CELLULSCHALGO:LOCALCELLID=0,SMARTPREALLOCATIONDURATION=50;
//Optimizing the delay for services with sparse packets (such as ping services)
MOD CELLULSCHALGO:LOCALCELLID=0,SMARTPREALLOCDURAFORSPARSE=1500,PREALLOCMINPERIODFORSPARSE=1ms,PREALLOCATIONSIZEFORSPARSE=2560BYTE;
MOD CELLALGOSWITCH:LOCALCELLID=0,ULSCHEXTSWITCH=EnhancedSchForSparseSwitch-1;
//Enabling voice preallocation
MOD CELLULSCHALGO:LOCALCELLID=0,ULENHENCEDVOIPSCHSW=UlVoipPreAllocationSwitch-1;
• Enabling QCI-level preallocation
ADD CELLPREALLOCGROUP:LOCALCELLID=0,PREALLOCATIONPARAGROUPID=0,PREALLOCATIONSWITCH=ON,SMARTPREALLOCATIONSWITCH=ON,PREALLOCATIONMINPER
IOD=5,PREALLOCATIONSIZE=80,SMARTPREALLOCATIONDURATION=50;
MOD CELLQCIPARA:LOCALCELLID=0,QCI=9,PREALLOCATIONPARAGROUPID=0;
MOD GLOBALPROCSWITCH: QciParaEffectFlag=ON;
• Enabling enhanced UL SR-based scheduling
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlEnhancedSrSchSwitch-1;
• Enabling data amount adaptation in UL SR-based scheduling
MOD CELLALGOSWITCH:LOCALCELLID=0,UlSchSwitch=SrSchDataAdptSw-1;
//When the UL PRB usage is greater than 90%
MOD CELLULSCHALGO:LOCALCELLID=0,UlSrSchDataVolAdptOptUpThd=2000;
• Enabling the function of scheduling termination for abnormal UEs
MOD CELLALGOSWITCH: LOCALCELLID=0, CELLSCHSTRATEGYSWITCH=AbnUeSchSwitch-1;
MOD CELLULSCHALGO: LOCALCELLID=0, ULSCHABNUETHD=15;
• Enabling the function of scheduler-controlled power
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=SchedulerCtrlPowerSwitch-1;
//Enabling RB number calculation based on UL data volume matching when the function of performing scheduling without considering powe
r control restrictions is used
MOD CELLALGOSWITCH:LOCALCELLID=0,ULSCHEXTSWITCH=UlDataFitterRbCalcSwitch-1;
//Enabling optimization of UE set selection when the function of performing scheduling without considering power control restrictions
is used
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHEXTSWITCH=UlSchCtrlPwrUserSetOptSw-1;
//Enabling RB quantity calculation optimization in case of power limitation when scheduler-controlled power is used
MOD ENODEBALGOSWITCH:UlResManageOptSw=UL_RBCALC_OPT_SWITCH-1;
• Enabling PDCCH and PUSCH resource balancing
MOD CELLULSCHALGO: LOCALCELLID=0, UENUMTHDINPDCCHPUSCHBAL=300, DATATHDINPDCCHPUSCHBAL=10000;
• Enabling the function of UL RLC segment reduction
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlSmallRBSpectralEffOptSw-1;
MOD CELLULSCHALGO: LOCALCELLID=0, HEADOVERHEADFORULSCH=48bit;
• Enabling the function of PUCCH RB occupation by PUSCH
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=PuschUsePucchRbSwitch-1;
• Enabling proactive scheduling of UL signaling
MOD CELLALGOSWITCH:LOCALCELLID=0,UlSchExtSwitch=SrbProbeSchSwitch-1;
12.3.5 Activation Observation
This section describes the procedures for verifying the activation of UL scheduling. The following examples show test results for commercial UEs in cells with a bandwidth of 20
MHz.
Observing EPF for UL Scheduling (Using the U2000)
To observe whether EPF has been activated for UL scheduling, perform the following steps:
1. Enable two UEs to access a cell in the cell center.
2. On the U2000 client, start channel quality monitoring and MCS-based count monitoring on each UE. The following are methods for starting these tasks:
• To start channel quality monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > Quality of Channel Monitoring.
• To start MCS-based count monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > MCS Count Monitoring.
3. Check the channel quality monitoring results of each UE. For example, the SINR for both UEs is approximately 21 dB.
4. Run the LST QCIPARA command to query the UL scheduling weight factors for QCIs 6 and 9.
5. Perform a UL service with QCI 6 on UE 1 and a UL service with QCI 9 on UE 2.
6. Check the MCS-based count monitoring results for the number of UL RBs allocated to each UE. If the ratio of the number for UE 1 to the number for UE 2 is
approximately equal to the ratio of the weight factor for QCI 6 to the weight factor for QCI 9, EPF for UL scheduling has been activated successfully.
Observing SINR Adjustment (Using Performance Counters)
Observe the values of the counters listed in Table 12-25. The SINR adjustment function has been activated if the UL IBLER, calculated using the following formula, approaches
the default value 10%:
Table 12-25 Counters related to SINR adjustment
Counter Name
Counter Description
L.Traffic.UL.SCH.QPSK.ErrTB.Ibler
Number of uplink error TBs after initial transmission in QPSK modulation mode
L.Traffic.UL.SCH.16QAM.ErrTB.Ibler
Number of uplink error TBs after initial transmission in 16QAM modulation
mode
L.Traffic.UL.SCH.64QAM.ErrTB.Ibler
Number of uplink error TBs after initial transmission in 64QAM modulation
mode
L.Traffic.UL.SCH.QPSK.TB
Number of TBs initially transmitted on the uplink SCH in QPSK modulation
mode
L.Traffic.UL.SCH.16QAM.TB
Number of TBs initially transmitted on the uplink SCH in 16QAM modulation
mode
L.Traffic.UL.SCH.64QAM.TB
Number of TBs initially transmitted on the uplink SCH in 64QAM modulation
mode
Observing SINR Adjustment (Using the U2000)
1. Connect a UE to the channel simulator. Enable the UE to access a cell in the cell center through the ETU channel.
2. On the U2000 client, start channel quality monitoring and BLER monitoring on the UE. The following are methods for starting these tasks:
• To start channel quality monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > Quality of Channel Monitoring.
• To start BLER monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose LTE > User
Performance Monitoring > BLER Monitoring.
3. Perform UL packet injection on the UE so that the UE is scheduled about 1000 times per second in the UL. At the same time, move the UE gradually to the cell edge.
4. Check the UL channel quality in channel quality monitoring results, and check the UL IBLER in the BLER monitoring results. In these examples, the SINR is
approximately 6.5 dB. If the value of Uplink IBLER(Permillage) fluctuates around 100 (meaning that the UL IBLER converges on the default value 10%), SINR
adjustment has been activated but target IBLER adaptation has not been activated. If the value of Uplink IBLER(Permillage) is greater than 100 and fluctuates
between 200 and 300, SINR adjustment and target IBLER adaptation have been activated.
Observing UL Preallocation (Using Performance Counters)
This section describes how to verify the activation of UL preallocation. The following examples show test results for commercial UEs in cells with a bandwidth of 20 MHz.
To observe whether UL preallocation has been activated, observe the value of the counter listed in Table 12-26. UL preallocation has been activated if the
L.ChMeas.PRB.UL.PreSch.Used.Avg counter produces a non-zero value.
Table 12-26 Counter related to UL preallocation
Counter Name
Counter Description
L.ChMeas.PRB.UL.PreSch.Used.Avg
Average number of UL PRBs preallocated
Observing UL Preallocation (Using the U2000)
1. Enable a UE to access a cell in the cell center. Do not perform UL services on the UE.
2. On the U2000 client, start channel quality monitoring and MCS-based count monitoring on each UE. The following are methods for starting these tasks:
• To start channel quality monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > Quality of Channel Monitoring.
• To start MCS-based count monitoring, choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose
LTE > User Performance Monitoring > MCS Count Monitoring.
3. Check the UL channel quality in the channel quality monitoring results, and check the number of times the UE is scheduled in the UL in the MCS-based count
monitoring results. The SINR is approximately 20.5 dB, and the UE is scheduled 200 times per second in the UL. The number of scheduling times is consistent with
the default preallocation period of 5 ms. The results indicate that preallocation has been activated.
Observing PDCCH and PUSCH Resource Balancing
1. Check the average number of users in the cell.
When the number of users reaches the value of CellUlschAlgo.UeNumThdInPdcchPuschBal, the trigger condition for PDCCH and PUSCH resource balancing applies.
2. Check the PDCCH resource utilization.
When the number of OFDM symbols occupied by the PDCCH reaches the maximum and CCE usage reaches around 80%, PDCCH resource congestion occurs.
CCE usage = (L.ChMeas.CCE.CommUsed + L.ChMeas.CCE.ULUsed + L.ChMeas.CCE.DLUsed)/L.ChMeas.CCE.Avail
3. Check the PUSCH resource usage.
If the RB usage is less than 50%, PDCCH and PUSCH resources are imbalanced in the cell.
RB usage = L.ChMeas.PRB.UL.Used.Avg/L.ChMeas.PRB.UL.Avail
Table 12-27 Counters related to PDCCH and PUSCH resource balancing
Counter Name
Counter Description
L.Traffic.User.Avg
Average number of users in a cell
L.ChMeas.PDCCH.SymNum.1
to 4
Number of times that the PDCCH occupies x OFDM symbols (x ranging
from 1 to 4)
L.ChMeas.CCE.CommUsed
Number of PDCCH CCEs used for common DCI
L.ChMeas.CCE.ULUsed
Number of PDCCH CCEs used for uplink DCI
L.ChMeas.CCE.DLUsed
Number of PDCCH CCEs used for downlink DCI
L.ChMeas.CCE.Avail
Number of available PDCCH CCEs
L.ChMeas.PRB.UL.Used.Avg
Average number of used PUSCH PRBs
L.ChMeas.PRB.UL.Avail
Number of available uplink PRBs
4. Compare the RB usage within the same period of service time before and after PDCCH and PUSCH resource balancing is enabled. If the RB usage increases, this
function has taken effect.
Observing PUCCH RB Occupation by PUSCH (Using the U2000)
To observe whether the function has been activated, perform the following steps using a commercial UE in a cell with a 10 MHz bandwidth:
1. Enable one UE to access the cell at the cell center and ensure that the DL RSRP is less than or equal to –80 dBm. Perform UL services on the UE.
2. Start RB usage monitoring on the U2000: Choose Monitor > Signaling Trace > Signaling Trace Management. Then in the navigation tree on the left, choose LTE >
Cell Performance Monitoring > Usage of RB Monitoring.
If the RBs consumed by the UE approximately equal the maximum RBs supported by the system bandwidth (50 RBs), this function has taken effect. If this function
does not take effect, the RBs consumed by the UE are less than the maximum RBs supported by the system bandwidth (50 RBs).
Observing Scheduler-controlled Power
To observe whether the function has been activated, perform the following steps using a commercial UE in a cell with a 10 MHz bandwidth:
1. Enable one UE to access the cell at a position not in the cell center and ensure that the DL RSRP is greater than or equal to –100 dBm. Perform continuous uploading
services on the UE.
2. Start the tool for tracing UE signaling. View the PHR value reported by the UE.
After scheduler-controlled power is disabled, the reported PHR value ranges from 21 to 24. If the reported PHR value is less than 20 after scheduler-controlled power
is enabled, scheduler-controlled power has taken effect.
12.3.6 Reconfiguration
None
12.3.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
• Disabling the UL Min-GBR guarantee function
Run the MOD CELLALGOSWITCH command with the UlMinGbrSwitch option of the Uplink schedule switch parameter deselected.
• Disabling SINR adjustment
Run the MOD CELLALGOSWITCH command with the SinrAdjustSwitch and PuschDtxSwitch options of the Uplink schedule switch parameter deselected.
• Disabling UL target IBLER adaptation
Run the MOD CELLALGOSWITCH command with the UlIblerAdjustSwitch option of the Uplink schedule switch parameter deselected.
• Disabling scenario-specific false SRI detection threshold configuration
Run the MOD CELLULSCHALGO command with the Sri False Detect Threshold Switch parameter set to OFF(Off).
• Disabling cell-level preallocation
Run the MOD CELLULSCHALGO command with the UlVoipPreAllocationSwitch option of the Uplink Enhanced VoIP Schedule Switch parameter deselected.
Run the MOD CELLALGOSWITCH command with the SmartPreAllocationSwitch option of the Uplink schedule switch parameter deselected.
Run the MOD CELLALGOSWITCH command with the PreAllocationSwitch option of the Uplink schedule switch parameter deselected.
Run the MOD CELLALGOSWITCH command with the EnhancedSchForSparseSwitch option of the Uplink Schedule Extended Switch parameter deselected.
• Disabling QCI-level preallocation
Run the MOD CELLQCIPARA command to disable QCI-level preallocation.
• Disabling enhanced UL SR-based scheduling
Run the MOD CELLALGOSWITCH command with the UlEnhancedSrSchSwitch option of the Uplink schedule switch parameter deselected.
• Disabling data amount adaptation in UL SR-based scheduling
Run the MOD CELLALGOSWITCH command with the SrSchDataAdptSw option of the Uplink schedule switch parameter deselected.
• Disabling the function of scheduling termination for abnormal UEs
Run the MOD CELLALGOSWITCH command with the AbnUeSchSwitch option of the Cell Schedule Strategy Switch parameter deselected.
• Disabling the function of scheduler-controlled power
Run the MOD CELLALGOSWITCH with the SchedulerCtrlPowerSwitch option of the Uplink schedule switch parameter deselected.
• Disabling PDCCH and PUSCH resource balancing
Run the MOD CELLULSCHALGO command with the Ue Num Threshold in PDCCH PUSCH Balance parameter specified.
• Disabling the function of UL RLC segment reduction
Run the MOD CELLALGOSWITCH command with the UlSmallRBSpectralEffOptSw option of the Uplink schedule switch parameter deselected.
Run the MOD CELLULSCHALGO command with the Head Overhead For Uplink Scheduling parameter set to 0.
• Disabling the function of PUCCH RB occupation by PUSCH
Run the MOD CELLALGOSWITCH command with the PuschUsePucchRbSwitch option of the Uplink schedule switch parameter deselected.
• Disabling proactive scheduling of UL signaling
Run the MOD CELLALGOSWITCH command with the SrbProbeSchSwitch option of the Uplink Schedule Extended Switch parameter deselected.
MML Command Examples
• Disabling the UL Min-GBR guarantee function
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlMinGbrSwitch-0;
• Disabling SINR adjustment
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=SinrAdjustSwitch-0&PuschDtxSwitch-0;
• Disabling UL target IBLER adaptation
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlIblerAdjustSwitch-0;
• Disabling scenario-specific false SRI detection threshold configuration
MOD CELLULSCHALGO: LOCALCELLID=0, SRIFALSEDETTHDSWITCH=OFF;
• Disabling cell-level preallocation
//Disabling voice preallocation
MOD CELLULSCHALGO:LOCALCELLID=0,ULENHENCEDVOIPSCHSW=UlVoipPreAllocationSwitch-0;
//Disabling optimization of the delay for services with sparse packets (such as ping services)
MOD CELLULSCHALGO: LOCALCELLID=0, SMARTPREALLOCDURAFORSPARSE=50, PREALLOCMINPERIODFORSPARSE=SAME_AS_OTHER_SERVICE, PREALLOCATIONSIZEF
ORSPARSE=SAME_AS_OTHER_SERVICE;
MOD CELLALGOSWITCH:LOCALCELLID=0,ULSCHEXTSWITCH=EnhancedSchForSparseSwitch-0;
//Disabling UL smart preallocation
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=PreAllocationSwitch-1&SmartPreAllocationSwitch-0;
//Disabling UL preallocation
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=PreAllocationSwitch-0;
• Disabling QCI-level preallocation
MOD CELLQCIPARA:LOCALCELLID=0,QCI=1,PREALLOCATIONPARAGROUPID=255;
• Disabling enhanced UL SR-based scheduling
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlEnhancedSrSchSwitch-0;
• Disabling data amount adaptation in UL SR-based scheduling
MOD CELLALGOSWITCH:LOCALCELLID=0,UlSchSwitch=SrSchDataAdptSw-0;
• Disabling the function of scheduling termination for abnormal UEs
MOD CELLALGOSWITCH: LOCALCELLID=0, CELLSCHSTRATEGYSWITCH=AbnUeSchSwitch-0;
• Disabling the function of scheduler-controlled power
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=SchedulerCtrlPowerSwitch-0;
• Disabling PDCCH and PUSCH resource balancing
MOD CELLULSCHALGO: LOCALCELLID=0, UENUMTHDINPDCCHPUSCHBAL=10000;
• Disabling the function of UL RLC segment reduction
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=UlSmallRBSpectralEffOptSw-0;
MOD CELLULSCHALGO: LOCALCELLID=0, HEADOVERHEADFORULSCH=0bit;
• Disabling the function of PUCCH RB occupation by PUSCH
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHSWITCH=PuschUsePucchRbSwitch-0;
• Disabling proactive scheduling of UL signaling
MOD CELLALGOSWITCH: LOCALCELLID=0, UlSchExtSwitch=SrbProbeSchSwitch-0;
12.4 Deploying the Traffic Model Based Performance Optimization Feature
12.4.1 Requirements
Operating Environment
In CA scenarios, all CA cells must have this feature enabled. In performance analysis, all CA cells need to be observed.
Transmission Networking
N/A
License
Operators must purchase and activate the following license.
Feature ID
Feature Name
Model
License Control Item
LOFD-110205
Traffic Model Based
Performance Optimization
LT1S00PLAS00
Traffic Model Based Performance
Optimization (FDD)
NE
Sales Unit
• Macro eNodeB
• LampSite eNodeB
• Micro eNodeB
per cell
12.4.2 Precautions
None
12.4.3 Data Preparation
The following table describes the parameter that must be set in a CellAlgoSwitch MO to configure the Traffic Model Based Performance Optimization feature.
Parameter Name
Parameter ID
Setting Notes
Uplink Schedule Extended Switch
CellAlgoSwitch.UlSchExtSwitch
The UlPacketLenAwareSchSw(UlPacketLenAwareSchSw) option of this
parameter specifies whether to enable Traffic Model Based Performance
Optimization in the uplink.
12.4.4 Activation
This feature can be activated using the CME or MML commands.
Using the CME
• Fast batch activation
This feature can be batch activated using the Feature Operation and Maintenance function of the CME. For detailed operations, see the following section in the CME
product documentation or online help: CME Management > CME Guidelines > Enhanced Feature Management > Feature Operation and Maintenance.
• Single/batch configuration
This feature can be activated for a single eNodeB or a batch of eNodeBs on the CME. For detailed operations, see CME-based Feature Configuration.
Using MML Commands
Run the MOD CELLALGOSWITCH command with the UlPacketLenAwareSchSw(UlPacketLenAwareSchSw) option of the Uplink Schedule Extended Switch parameter
selected to enable Traffic Model Based Performance Optimization in the uplink.
MML Command Examples
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHEXTSWITCH=UlPacketLenAwareSchSw-1;
12.4.5 Activation Observation
1. Check the number of users and RB usage in the cell. It is easy to observe the gains yielded by Packet Length Awareness Performance Optimization when the cell
traffic load is heavy.
Recommended configurations:
• The cell serves more than 150 users.
• UL RB usage is greater than 60%.
To start cell RB usage monitoring, choose Monitor > Signaling Trace > Signaling Trace Management on the U2000. In the navigation tree, choose Cell
Performance Monitoring > Usage of RB Monitoring.
2. Adjust service configurations.
Recommended service configurations:
• Average data rate for large-packet services: around 4 Mbit/s
• Average data rate for small-packet services: around 12 kbit/s
• Ratio of large-packet services to small-packet services: 1:4
3. Check perceivable user throughput after activating the feature for a while. If perceivable user throughput increases by 5% or higher, the Packet Length Awareness
Performance Optimization feature has taken effect.
12.4.6 Reconfiguration
None
12.4.7 Deactivation
This feature can be deactivated using the CME or MML commands.
Using the CME
For detailed operations, see CME-based Feature Configuration.
Using MML Commands
Run the MOD CELLALGOSWITCH command with the UlPacketLenAwareSchSw(UlPacketLenAwareSchSw) option of the Uplink Schedule Extended Switch parameter
deselected to disable Traffic Model Based Performance Optimization in the uplink.
MML Command Examples
MOD CELLALGOSWITCH: LOCALCELLID=0, ULSCHEXTSWITCH=UlPacketLenAwareSchSw-0;
12.5 Performance Monitoring
In UL scheduling, the gains in UL user-perceived throughput can be monitored using the L.Thrp.bits.UE.UL.Experienced/L.Thrp.Time.UE.UL.Experienced formula.
For the LBFD-00101502 Dynamic Scheduling feature: This feature supports quick configuration of counter collection by feature using the U2000. The measurement for the
counters related to this feature can be set in a single operation. These counters are determined by the counter-feature relationships listed in the performance counter reference.
For details about the operations, see "Quickly Setting Performance Measurement by Feature" in iManager U2000 MBB Network Management System Product Documentation.
12.6 Parameter Optimization
N/A
12.7 Possible Issues
N/A
13
Parameters
Table 13-1 Parameters
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
CellAlgoSwitch
UlSchExtSwitch
MOD CELLALGOSWITCH
LST CELLALGOSWITCH
LOFD-110205 /
TDLOFD-110227
LOFD-001048 /
TDLOFD-001048
LOFD-001016 /
TDLOFD-001016
LOFD-081218 /
TDLOFD-081215
LBFD-00101502 /
TDLBFD-00101502
TDLBFD-002025 /
LBFD-002025
TDLBFD-001006
TDLOFD-121106
Traffic Model
Based
Performance
Optimization
TTI Bundling
VoIP Semipersistent
Scheduling
Enhanced
Extended QCI
Dynamic
Scheduling
Basic
Scheduling
AMC
MCPTT Voice
Management
Meaning:
Indicates whether to enable extended functions of
uplink scheduling.
UlPacketLenAwareSchSw: Indicates whether to
optimize uplink packet length awareness
performance. Packet length awareness
performance is optimized in the uplink only if this
option is selected. This option applies only to LTE
FDD and LTE TDD.
EnhExtQCITtiBundlingSwitch: Indicates whether to
enable TTI bundling for push-to-talk (PTT) services
with QCI 65, QCI 66, or enhanced extended QCIs.
If this option is selected, the number of
transmission opportunities increases within the air
interface delay budget of PTT services, and uplink
coverage is improved. This option applies only to
LTE FDD and LTE TDD.
EnhExtQCISpsSchSwitch: Indicates whether to
enable semi-persistent scheduling during talk
spurts of PTT services with QCI 65, QCI 66, or
enhanced extended QCIs. If this option is selected,
semi-persistent scheduling is applied. If this option
is deselected, dynamic scheduling is applied. This
option applies only to LTE FDD and LTE TDD.
UlVoipRbRsvSwitch: Indicates whether to reserve
PUSCH RBs for UEs running voice services in the
uplink. This option does not take effect if the uplink
cell bandwidth is less than 5 MHz. This option
applies only to LTE FDD.
UlThpEnhSwitch: Indicates whether to enable the
enhanced uplink throughput improvement function.
If this option is selected, the eNodeB calculates
the PUCCH overhead based on the actual number
of RBs occupied by the PUCCH when the number
of UEs is small in the cell, which improves the
uplink throughput. If this option is deselected, the
eNodeB calculates the PUCCH overhead based
on the current PUCCH resource configuration.
This option applies only to LTE TDD.
UlDataFitterRbCalcSwitch: Indicates whether to
enable the algorithm of RB calculation based on
uplink data volume matching. The algorithm takes
effect only when this option and the
SchedulerCtrlPowerSwitch option of the
UlSchSwitch parameter are selected. When this
algorithm takes effect, the number of required RBs
is estimated based on the UE capability and the
data volume to be scheduled. If this algorithm does
not take effect, the number of required RBs is
estimated based on the UE spectral efficiency and
the data volume to be scheduled. This option
applies only to LTE FDD.
UlFssOptForAttach: Indicates whether to perform
uplink frequency selective scheduling based on the
value of Interf in the network entry phase. If this
option is selected, uplink frequency selective
scheduling is performed based on the interference
level during network access. If this option is
deselected, uplink frequency selective scheduling
is performed based on the SINR during network
access. This option can be selected when the
ULFSSAlgoSwitch option of the UlSchSwitch
parameter is selected. This option applies only to
LTE TDD.
SrbProbeSchSwitch: Indicates whether to
proactively schedule uplink signaling. If this option
is selected, the eNodeB triggers proactive
scheduling of uplink signaling for once when the
eNodeB determines that data correctly scheduled
in the downlink is control-plane signaling that
requires the uplink signaling feedback and does
not receive the feedback within a specified period
of time. This option applies only to LTE FDD and
LTE TDD.
UlSchCtrlPwrUserSetOptSw: Indicates whether to
enable the algorithm of selecting UE sets for the
scheduler-controlled power function. This
algorithm takes effect only when this option and
the SchedulerCtrlPowerSwitch option of the
UlSchSwitch parameter are selected. When this
algorithm takes effect, pre-scheduled UEs of a
lower priority are not included in the UE set
selected by the scheduler. When this algorithm
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
does not take effect, all pre-scheduled UEs are
included in the UE set selected by the scheduler.
This option applies only to LTE FDD and LTE
TDD.
UlPttSchOptSwitch: Indicates whether to enable
dynamic scheduling for PTT services with QCI 65,
QCI 66, or enhanced extended QCIs. If this option
is selected, for PTT service UEs that are
scheduled dynamically in the uplink, the eNodeB
triggers uplink dynamic scheduling when the
scheduling interval is greater than the uplink voice
scheduling interval threshold. This ensures timely
uplink scheduling for voice service users in heavy
traffic scenarios, preventing packet discarding
upon the timeout of PDCP packet discarding timer.
If this option is deselected, the eNodeB does not
trigger uplink dynamic scheduling for PTT services
in the preceding scenario. This option applies only
to LTE FDD and LTE TDD.
UlPttDataSizeEstSwitch: Indicates whether to
estimate uplink traffic volume for dynamic
scheduling of PTT services with QCI 65, QCI 66,
or enhanced extended QCIs. If this option is
selected, the eNodeB estimates uplink traffic
volume for dynamic scheduling of PTT services,
reducing the packet delay and packet loss rate and
increasing voice quality of PTT services. If this
option is deselected, the function does not take
effect. This option applies only to LTE FDD and
LTE TDD.
EnhancedSchForSparseSwitch: Indicates whether
ping packets are subject to the preallocation
bandwidth percentage restriction and whether to
change the method of calculating the number of
RBs to be allocated for SR-based dynamic
scheduling of ping packets. If this option is
selected, ping packets are not subject to the
preallocation bandwidth percentage restriction,
and the number of RBs to be allocated for SRbased dynamic scheduling of ping packets is
calculated based on the size of the ping packets. If
this option is deselected, ping packets are subject
to the preallocation bandwidth percentage
restriction, and the number of RBs to be allocated
for SR-based dynamic scheduling of ping packets
is calculated based on the average spectral
efficiency. For FDD, this option indicates only
whether ping packets are subject to the
preallocation bandwidth percentage restriction.
This option applies only to LTE FDD and LTE
TDD.
UlSigSrSchDateLenAdapt: Indicates whether to
enable data amount adaptation for SR-based
scheduling of uplink signaling. The adaptation is
enabled only if this option is selected. When the
adaptation is enabled, the eNodeB adaptively
allocates the amount of to-be-scheduled data and
the number of RBs based on the signaling
identification result in SR-based scheduling of
uplink signaling. This option applies only to LTE
FDD and LTE TDD.
UlFssWindSearchDirRandSw: Indicates whether to
randomize the search window direction in uplink
frequency selective scheduling. The randomization
is enabled only if this option is selected. When the
randomization is enabled, the eNodeB randomly
specifies a search window direction for a cell in
frequency selective scheduling. This option applies
only to LTE FDD.
UlCellCenterMCSOptSwitch: Indicates whether to
optimize MCSs for uplink transmission by UEs in
the cell center. The optimization is enabled only if
this option is selected. When the optimization is
enabled, the throughput of full-buffer services of
UEs in or near the cell center increases. This
option applies only to LTE FDD and LTE TDD.
PuschSchEscPucchSwitch: If this option is
selected, PUCCH interference coordination takes
effect, reducing PUCCH interference. This option
applies only to LTE TDD.
HarqMcsOptSwitch: If this option is selected, the
instantaneous DMRS measurement value can be
used to select an MCS index for retransmission.
This option applies only to LTE TDD.
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
PreambleSchEnhSwitch: If this option is selected,
the preamble scheduling and demodulation
success rates increase. If this option is deselected,
the preamble scheduling and demodulation
success rates do not increase. If this option is
deselected in NB-IoT scenarios, the maximum
backoff index included in MAC PDU is 12. If this
option is selected in NB-IoT scenarios, the
maximum backoff index included in MAC PDU is 7.
This accommodates certain UEs not supporting
higher backoff indexes.
UlPAMCSwitch: If this option is selected, AMC
maximizing the uplink perceived throughput takes
effect and AMC adjustment and MCS index
selection are performed in an optimized way. This
option applies only to LTE FDD and LTE TDD.
UlMultiClusterSwitch: Indicates whether to enable
the uplink multi-cluster function. This function is
enabled only when the option is selected. Uplink
discontinuous resource allocation is supported
when this function is enabled. This option applies
only to LTE FDD.
GUI Value Range: UlPacketLenAwareSchSw
(UlPacketLenAwareSchSw),
EnhExtQCITtiBundlingSwitch
(EnhExtQCITtiBundlingSwitch),
EnhExtQCISpsSchSwitch
(EnhExtQCISpsSchSwitch), UlVoipRbRsvSwitch
(UlVoipRbRsvSwitch), UlThpEnhSwitch
(UlThpEnhSwitch), UlDataFitterRbCalcSwitch
(UlDataFitterRbCalcSwitch), UlFssOptForAttach
(UlFssOptForAttach), SrbProbeSchSwitch
(SrbProbeSchSwitch),
UlSchCtrlPwrUserSetOptSw
(UlSchCtrlPwrUserSetOptSw), UlPttSchOptSwitch
(UlPttSchOptSwitch), UlPttDataSizeEstSwitch
(UlPttDataSizeEstSwitch),
EnhancedSchForSparseSwitch
(EnhancedSchForSparseSwitch),
UlSigSrSchDateLenAdapt
(UlSigSrSchDateLenAdapt),
UlFssWindSearchDirRandSw
(UlFssWindSearchDirRandSw),
UlCellCenterMCSOptSwitch
(UlCellCenterMCSOptSwitch),
PuschSchEscPucchSwitch
(PuschSchEscPucchSwitch), HarqMcsOptSwitch
(HarqMcsOptSwitch), PreambleSchEnhSwitch
(PreambleSchEnhSwitch), UlPAMCSwitch
(UlPAMCSwitch), UlMultiClusterSwitch
(UlMultiClusterSwitch)
Unit: None
Actual Value Range: UlPacketLenAwareSchSw,
EnhExtQCITtiBundlingSwitch,
EnhExtQCISpsSchSwitch, UlVoipRbRsvSwitch,
UlThpEnhSwitch, UlDataFitterRbCalcSwitch,
UlFssOptForAttach, SrbProbeSchSwitch,
UlSchCtrlPwrUserSetOptSw, UlPttSchOptSwitch,
UlPttDataSizeEstSwitch,
EnhancedSchForSparseSwitch,
UlSigSrSchDateLenAdapt,
UlFssWindSearchDirRandSw,
UlCellCenterMCSOptSwitch,
PuschSchEscPucchSwitch, HarqMcsOptSwitch,
PreambleSchEnhSwitch, UlPAMCSwitch,
UlMultiClusterSwitch
Default Value: UlPacketLenAwareSchSw:Off,
EnhExtQCITtiBundlingSwitch:Off,
EnhExtQCISpsSchSwitch:Off,
UlVoipRbRsvSwitch:Off, UlThpEnhSwitch:Off,
UlDataFitterRbCalcSwitch:On,
UlFssOptForAttach:Off, SrbProbeSchSwitch:Off,
UlSchCtrlPwrUserSetOptSw:Off,
UlPttSchOptSwitch:Off,
UlPttDataSizeEstSwitch:Off,
EnhancedSchForSparseSwitch:Off,
UlSigSrSchDateLenAdapt:Off,
UlFssWindSearchDirRandSw:Off,
UlCellCenterMCSOptSwitch:Off,
PuschSchEscPucchSwitch:Off,
HarqMcsOptSwitch:Off,
PreambleSchEnhSwitch:Off, UlPAMCSwitch:Off,
UlMultiClusterSwitch:Off
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
CellAlgoSwitch
CqiAdjAlgoSwitch
MOD CELLALGOSWITCH
LST CELLALGOSWITCH
LBFD-00101501 /
TDLBFD-00101501
LBFD-00101502 /
TDLBFD-00101502
LBFD-002005 /
TDLBFD-002005
TDLOFD-081231
CQI
Adjustment
Dynamic
Scheduling
DL
Asynchronous
HARQ
Optimized
CFICalculationbased MCS
Index
Selection
Meaning:
CqiAdjAlgoSwitch: Indicates whether to allow the
eNodeB to adjust the UE-reported CQI based on
the initial block error rate (IBLER). If this option is
selected, the CQI adjustment algorithm is enabled.
In this case, the eNodeB adjusts the UE-reported
CQI based on the IBLER. If this option is
deselected, the CQI adjustment algorithm is
disabled. In this case, the eNodeB does not adjust
the UE-reported CQI based on the IBLER. This
option applies only to LTE FDD and LTE TDD.
StepVarySwitch: Indicates whether to enable
variable-step-based adjustment. If this option is
selected, variable-step-based adjustment is
enabled to accelerate the convergence of IBLER.
In this case, rapid adjustment at large steps is
applied if there is a large difference between the
measured IBLER and target IBLER; fine-tuning at
small steps is applied if the measured IBLER is
close to the target IBLER. If this option is
deselected, the adjustment is performed at a fixed
step. This option applies only to LTE FDD and LTE
TDD.
DlVarIBLERtargetSwitch: Indicates whether to
enable downlink target IBLER adaptation. If this
option is selected, the downlink target IBLER is
adaptively adjusted based on the TBS to improve
spectral efficiency. If this option is deselected, the
target IBLER is determined based on the setting of
the DlEnVarIblerTargetSwitch option of this
parameter. This option applies only to LTE FDD
and LTE TDD.
TddBundlingCqiAdjOptSwitch: Indicates whether
to enable optimized CQI adjustment algorithm in
ACK bundling mode. If this option is selected, the
optimized CQI adjustment algorithm is enabled. If
this option is deselected, the optimized CQI
adjustment algorithm is disabled. This option
applies only to LTE TDD.
TddMultiplexingCqiAdjOptSwitch: Indicates
whether to enable optimized CQI adjustment in
ACK multiplexing mode. If this option is selected,
optimized CQI adjustment is enabled. If this option
is deselected, optimized CQI adjustment is
disabled. This option applies only to LTE TDD.
AdaptiveStepVarySwitch: Indicates whether to
enable adaptive step change in CQI adjustment.
This option applies only to LTE FDD and LTE
TDD. If this option is selected, the CQI adjustment
is performed at a large step when significant
changes in the signal quality are detected,
accelerating the IBLER convergence. If this option
is deselected, the CQI adjustment is performed at
a fixed step.
DlCqiAdjDeltaOptSwitch: Indicates whether to
optimize CQI adjustment amount calculation. If this
option is deselected, the CQI adjustment amount
is calculated using the following formula: CQI
adjustment amount = (Number of ACKs for initial
transmissions x CQI adjustment amount per ACK
+ Number of NACKs for initial transmissions x CQI
adjustment amount per NACK)/(Number of NACKs
for initial transmissions + Number of ACKs for
initial transmissions). If this option is selected, the
CQI adjustment amount is calculated using the
following formula: CQI adjustment amount =
Number of ACKs for initial transmissions x CQI
adjustment amount per ACK + Number of NACKs
for initial transmissions x CQI adjustment amount
per NACK. This option applies only to LTE FDD
and LTE TDD.
DlEnVarIblerTargetSwitch: Indicates whether to
enable enhanced downlink target IBLER
adaptation. If this option is selected, the downlink
target IBLER is adaptively adjusted based on CQI
fluctuation and TBS. If this option is deselected,
the downlink target IBLER policy is controlled by
the DlVarIBLERtargetSwitch option of this
parameter. This option applies only to LTE FDD
and LTE TDD.
DlRetxTbsIndexAdjOptSwitch: Indicates whether
to optimize transport block size (TBS) index
adjustment in retransmissions. If this option is
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
selected, TBS index adjustment in retransmissions
is optimized. The TBS index is lowered for the
scheduling of the last two retransmissions, and the
TBS index is determined based on the CQI
adjustment result for the scheduling of other
retransmissions. If this option is deselected, TBS
index adjustment in retransmissions is not
optimized. The TBS index is determined based on
the CQI adjustment result for the scheduling of all
retransmissions. This option applies only to LTE
FDD and LTE TDD.
CfiConvertOptSwitch: Indicates whether to
optimize CFI conversion. If this option is selected,
new CFI calculation tables for normal and special
subframes are used to ensure more accurate MCS
selection in normal and special subframes and
facilitate IBLER convergence to the target value. If
this option is deselected, the original CFI
calculation tables for normal and special
subframes are used. This option applies only to
LTE TDD.
BundlingOptThdSwitch: Indicates whether to
adjust the MCS index threshold for enabling the
optimized CQI adjustment algorithm in TDD
bundling mode. If this option is selected, the lower
MCS index threshold for enabling the optimized
CQI adjustment algorithm in TDD bundling mode is
changed from MCS index 6 to MCS index 0. If this
option is deselected, the lower MCS index
threshold for enabling the optimized CQI
adjustment algorithm in TDD bundling mode is
MCS index 6. This option applies only to LTE TDD.
DlSpsMcsIncreaseSwitch: Indicates whether to
enable MCS index increase for semi-persistent
scheduling (SPS). If this option is selected, MCS
index increase is enabled for SPS, reducing the
number of RBs for SPS and improving cell
performance when RB resources are limited.
However, the VoLTE MOS value may decrease. If
this option is deselected, MCS index increase is
disabled for SPS, increasing the VoLTE MOS
value. However, more RBs may be consumed for
SPS. This option applies only to LTE FDD and
LTE TDD.
CqiAdjTimeEffSwitch: Indicates whether to enable
validity evaluation and adjustment for CQI
adjustment, and whether to trigger large-stepbased CQI adjustment when a long time has
elapsed before a UE begins to perform services
based on the setting of the
AdaptiveStepVarySwitch option of this parameter.
If this option is selected, the eNodeB evaluates the
validity of all CQI adjustment values in a unified
manner and adjusts these adjustment values
based on the evaluation results. If this option and
the AdaptiveStepVarySwitch option are selected,
large-step-based CQI adjustment is triggered
when a long time has elapsed before a UE begins
to perform services. If this option is deselected, the
eNodeB does not evaluate the validity of CQI
adjustment values or adjust these values in a
unified manner, and large-step-based CQI
adjustment is not triggered when a long time has
elapsed before a UE begins to perform services.
This option applies only to LTE TDD.
RptCqiFltInitSwitch: Indicates whether to adjust the
initial filtered value of the reported CQI. If this
option is selected, the initial filtered value of the
reported CQI is determined based on the CQI
value reported by the UE, and the filtering
coefficient for the reported CQI in the first several
reporting periods is adjusted. If this option is
deselected, the initial filtered value of CQIs
reported by all UEs is fixed to 4. This option
applies only to LTE FDD and LTE TDD.
UeSigInitCqiModSwitch: Indicates the time when
the reported initial CQI takes effect. If this option is
selected, the reported initial CQI takes effect when
the ACK to Msg4 HARQ retransmission is received
or when Msg5 is received. If this option is
deselected, the reported CQI immediately takes
effect. This option applies only to LTE TDD.
CqiFastCompstSwitch: Indicates whether the
eNodeB performs fast CQI compensation for the
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
following UEs: UEs handed over to cells whose
values of PCI modulo 3 conflict with source cells'
values of PCI modulo 3, beamforming UEs in
8T8R cells, and UEs reporting aperiodic CQIs
during network access under a high CAPS
condition. If this option is selected, the eNodeB
identifies these UEs and quickly compensates for
their CQIs. If this option is deselected, the eNodeB
does not identify these UEs for CQI compensation.
This option applies only to LTE TDD.
CfiConvertWiDrsSwitch: Indicates whether to
consider the DMRS overhead when converting the
control format indicator (CFI) for beamforming
UEs. If this option is selected, the eNodeB
considers the DMRS overhead when converting
the CFI of beamforming UEs. If this option is
deselected, the eNodeB does not consider the
DMRS overhead when converting the CFI of
beamforming UEs in open-loop TM7, TM8, or TM9
mode. This option applies only to LTE FDD and
LTE TDD.
IblerCqiOffsetSwitch: Indicates whether to perform
CQI compensation based on the target IBLER.
The eNodeB performs CQI compensation based
on the target IBLER only if this option is selected.
This option applies only to LTE TDD.
CqiFltOptSwitch: Indicates whether to optimize
CQI filtering. If this option is selected, the eNodeB
determines whether to discard a UE-reported CQI
based on this reported CQI and the previous
HARQ retransmission IBLER, does not filter CQIs
again in case of TM change, and triggers both
large step increase and large step decrease during
step adaptation. If this option is deselected, the
eNodeB directly uses UE-reported CQIs, filters
CQIs again in case of TM change, and triggers
only large step increase during step adaptation.
This option applies only to LTE TDD.
PreciseMcsAdaptSwitch: Indicates whether to
enable precise MCS adaptation. If this option is
selected, the eNodeB selects the TBS with a
higher index for the first downlink HARQ
retransmission. In addition, when the initial CQI
adjustment amount is relatively conservative, the
eNodeB increases and compensates for the CQI
adjustment amount. If this option is deselected, the
eNodeB does not perform the preceding
operations. This option applies only to LTE FDD.
PilotOffCqiAdjOptSwitch: Indicates CQI adaptation
optimization for CRS transmission disabling. If this
option is selected, for UEs regarded as largepacket UEs when the BreathingPilotSwitch or
EmimoCpsSwitch option is selected, the CQI
adjustment is performed at a large step in case of
significant signal quality changes. If this option is
deselected, the CQI adjustment is performed at a
fixed step for the preceding UEs. This option
applies only to LTE FDD.
GUI Value Range: CqiAdjAlgoSwitch
(CqiAdjAlgoSwitch), StepVarySwitch
(StepVarySwitch), DlVarIBLERtargetSwitch
(DlVarIBLERtargetSwitch),
TddBundlingCqiAdjOptSwitch
(TddBundlingCqiAdjOptSwitch),
TddMultiplexingCqiAdjOptSwitch
(TddMultiplexingCqiAdjOptSwitch),
AdaptiveStepVarySwitch
(AdaptiveStepVarySwitch),
DlCqiAdjDeltaOptSwitch(DlCqiAdjDeltaOptSwitch),
DlEnVarIblerTargetSwitch
(DlEnVarIblerTargetSwitch),
DlRetxTbsIndexAdjOptSwitch
(DlRetxTbsIndexAdjOptSwitch),
CfiConvertOptSwitch(CfiConvertOptSwitch),
BundlingOptThdSwitch(BundlingOptThdSwitch),
DlSpsMcsIncreaseSwitch
(DlSpsMcsIncreaseSwitch), CqiAdjTimeEffSwitch
(CqiAdjTimeEffSwitch), RptCqiFltInitSwitch
(RptCqiFltInitSwitch), UeSigInitCqiModSwitch
(UeSigInitCqiModSwitch), CqiFastCompstSwitch
(CqiFastCompstSwitch), CfiConvertWiDrsSwitch
(CfiConvertWiDrsSwitch), IblerCqiOffsetSwitch
(IblerCqiOffsetSwitch), CqiFltOptSwitch
(CqiFltOptSwitch), PreciseMcsAdaptSwitch
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
(PreciseMcsAdaptSwitch),
PilotOffCqiAdjOptSwitch(PilotOffCqiAdjOptSwitch)
Unit: None
Actual Value Range: CqiAdjAlgoSwitch,
StepVarySwitch, DlVarIBLERtargetSwitch,
TddBundlingCqiAdjOptSwitch,
TddMultiplexingCqiAdjOptSwitch,
AdaptiveStepVarySwitch, DlCqiAdjDeltaOptSwitch,
DlEnVarIblerTargetSwitch,
DlRetxTbsIndexAdjOptSwitch,
CfiConvertOptSwitch, BundlingOptThdSwitch,
DlSpsMcsIncreaseSwitch, CqiAdjTimeEffSwitch,
RptCqiFltInitSwitch, UeSigInitCqiModSwitch,
CqiFastCompstSwitch, CfiConvertWiDrsSwitch,
IblerCqiOffsetSwitch, CqiFltOptSwitch,
PreciseMcsAdaptSwitch, PilotOffCqiAdjOptSwitch
Default Value: CqiAdjAlgoSwitch:On,
StepVarySwitch:Off, DlVarIBLERtargetSwitch:Off,
TddBundlingCqiAdjOptSwitch:Off,
TddMultiplexingCqiAdjOptSwitch:Off,
AdaptiveStepVarySwitch:Off,
DlCqiAdjDeltaOptSwitch:Off,
DlEnVarIblerTargetSwitch:Off,
DlRetxTbsIndexAdjOptSwitch:On,
CfiConvertOptSwitch:Off,
BundlingOptThdSwitch:Off,
DlSpsMcsIncreaseSwitch:Off,
CqiAdjTimeEffSwitch:Off, RptCqiFltInitSwitch:Off,
UeSigInitCqiModSwitch:Off,
CqiFastCompstSwitch:Off,
CfiConvertWiDrsSwitch:Off,
IblerCqiOffsetSwitch:Off, CqiFltOptSwitch:Off,
PreciseMcsAdaptSwitch:Off,
PilotOffCqiAdjOptSwitch:Off
CellDlschAlgo
DlFirstHarqTxTbsIncNum
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-002025
LBFD-002005
Basic
Scheduling
DL
Asynchronous
HARQ
Meaning: Indicates the increase in the TBS index
used for the first downlink HARQ retransmission.
When this parameter is set to 0, the eNodeB does
not increase the TBS index used for the first
downlink HARQ retransmission. This parameter
applies only to LTE FDD. This parameter takes
effect only when the PreciseMcsAdaptSwitch
option of the CqiAdjAlgoSwitch parameter in the
CellAlgoSwitch MO is selected.
GUI Value Range: 0~4
Unit: None
Actual Value Range: 0~4
Default Value: 0
CellDlschAlgo
LowIblerTargetTbsIdxThld
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-00101501 /
TDLBFD-00101501
LBFD-00101502 /
TDLBFD-00101502
CQI
Adjustment
Dynamic
Scheduling
Meaning:
Indicates whether to enable TBS-index-based
enhanced downlink target IBLER adaptation. This
parameter applies only to LTE FDD and LTE TDD.
The value 255 indicates that the enhanced
downlink target IBLER adaptation algorithm does
not adjust the target IBLER based on the TBS
index. Instead, the UE number is used as the
admission condition for the enhanced downlink
target IBLER adaptation algorithm.
Values other than 255 indicate that the enhanced
downlink target IBLER adaptation algorithm
adjusts the target IBLER based on the TBS index.
In this situation, the CPU usage is used as the
admission condition for the enhanced downlink
target IBLER adaptation algorithm, and the low
target IBLER value takes effect based on the TBS
index when channel quality fluctuates slightly.
When channel quality fluctuates slightly, the low
target IBLER value takes effect only when the TBS
index is greater than or equal to this parameter
value and the DlEnVarIblerTargetSwitch option is
selected.
GUI Value Range: 0~33,255
Unit: None
Actual Value Range: 0~33,255
Default Value: 255
CellDlschAlgo
HighIblerTargetTbsIdxThld
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-00101501 /
TDLBFD-00101501
LBFD-00101502 /
TDLBFD-00101502
CQI
Adjustment
Dynamic
Scheduling
Meaning: Indicates the threshold for TBS index
based on which the high target IBLER value takes
effect when channel quality fluctuates significantly.
When channel quality fluctuates significantly, the
high target IBLER value takes effect only when the
TBS index is less than or equal to this parameter
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
value, the DlEnVarIblerTargetSwitch option is
selected, and LowIblerTargetTbsIdxThld is not set
to 255. This parameter applies only to LTE FDD
and LTE TDD.
GUI Value Range: 0~33
Unit: None
Actual Value Range: 0~33
Default Value: 16
CellPucchAlgo
SriAlgoSwitch
MOD CELLPUCCHALGO
LST CELLPUCCHALGO
LBFD-002003 /
TDLBFD-002003
LOFD-081229
Physical
Channel
Management
Voice
Characteristic
Awareness
Scheduling
Meaning:
Indicates the working modes for SRI reporting
period configuration.
SriAdaptiveHoldForVoIPSW: Indicates whether to
enable SRI reporting period adaptation for VoLTE
UEs during resource adjustment for SRI reporting.
If this option is selected, SRI reporting periods are
configured based on the cell load. If the number of
UEs is small, adaptively configured SRI reporting
periods are shorter than the fixed long SRI
reporting period, improving the MOS of VoLTE
users. If this option is deselected, the fixed long
SRI reporting period is retained.
SriAdaptiveHoldForVoIPSW takes effect only
when both PUCCH resource adjustment and SRI
reporting period adaptation are enabled. This
option applies only to LTE FDD and LTE TDD.
SriPeriodCfgOptSW: Indicates whether to optimize
SRI reporting period configuration. If this option is
selected, SRI reporting periods are configured
based only on the SRI reporting resource usage in
the cell. When CA and VoLTE are enabled, many
UEs can be assigned short SRI reporting periods,
the amount of PUCCH resource increases, but the
amount of available PUSCH resource decreases.
If this option is deselected, SRI reporting periods
are configured based on the resource usage of
SRI reporting, semi-persistent ACK reporting, and
dynamic ACK reporting. When CA and VoLTE are
enabled, few UEs can be assigned short SRI
reporting periods, the amount of PUCCH resource
decreases, but the amount of available PUSCH
resource increases. This option applies only to
LTE FDD and LTE TDD.
SriOffsetReConfigForDrxSW: indicates whether to
reconfigure the SRI subframe offset for DRX. This
option applies only to LTE FDD. If this option is
selected, the eNodeB adjusts SRI and DRX
subframe offsets for power saving. If this option is
deselected, the eNodeB does not perform this
function.
SriPeriodOptForVoipSW: Indicates whether to
perform VoLTE-based adaptive SRI period
optimization. If this option is selected, the eNodeB
preferentially allocates a short SRI period for
VoLTE UEs, thereby improving user experience of
VoLTE UEs. This option takes effect only when
SriPeriodAdaptive is set to QCIADAPTIVE and
SriReCfgInd is set off. This option applies only to
FDD. If this option is deselected, the eNodeB does
not perform this function.
SriDetectEnhanceSW: Indicates whether to enable
L1 detection enhancement algorithm for PUCCH
SRI. When this option is selected, the PUCCH SRI
detection enhancement algorithm is enabled for a
cell. In this case, an optimized interference noise
estimation algorithm applies to the PUCCH
format1 detection. This helps effectively suppress
false SRI detections. When this option is
deselected, the PUCCH SRI detection
enhancement algorithm is not enabled, and the
original demodulation algorithm is used for
PUCCH format1 detection. This option applies only
to LTE FDD and LTE TDD.
GUI Value Range: SriAdaptiveHoldForVoIPSW
(SriAdaptiveHoldForVoIPSW), SriPeriodCfgOptSW
(SriPeriodCfgOptSW),
SriOffsetReConfigForDrxSW
(SriOffsetReConfigForDrxSW),
SriPeriodOptForVoipSW
(SriPeriodOptForVoipSW), SriDetectEnhanceSW
(SriDetectEnhanceSW)
Unit: None
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
Actual Value Range: SriAdaptiveHoldForVoIPSW,
SriPeriodCfgOptSW, SriOffsetReConfigForDrxSW,
SriPeriodOptForVoipSW, SriDetectEnhanceSW
Default Value: SriAdaptiveHoldForVoIPSW:Off,
SriPeriodCfgOptSW:On,
SriOffsetReConfigForDrxSW:Off,
SriPeriodOptForVoipSW:Off,
SriDetectEnhanceSW:Off
CellAlgoSwitch
CellDlCoverEnhanceSwitch
MOD CELLALGOSWITCH
LST CELLALGOSWITCH
CellUlschAlgo
UlSrSchDataVolAdptOptUpThd MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the upper limit on the amount
of data that can be scheduled in SR-based
scheduling. This parameter, together with the
UlSrSchDateLen parameter, determines the range
within which this amount can be adaptively
optimized. If this parameter is set to 0, adaptive
optimization does not take effect. If this parameter
is set to a value greater than 0 and less than the
UlSrSchDateLen parameter value, this parameter
takes the value of UlSrSchDateLen. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: 0~20000
Unit: bit
Actual Value Range: 0~20000
Default Value: 0
ENodeBAlgoSwitch
UlResManageOptSw
MOD
ENODEBALGOSWITCH
LST
ENODEBALGOSWITCH
LBFD-001006
LOFD001066/TDLOFD001066
LOFD-070222
LOFD-070223
AMC
Intra-eNodeB
UL CoMP
Intra-eNodeB
UL CoMP
Phase II
UL CoMP
based on
Coordinated
BBU
Meaning:
Indicates whether to enable functions related to
uplink resource optimization.
UL_RBCALC_OPT_SWITCH: Indicates whether to
enable the optimization of uplink RB quantity
calculation for cell-edge UEs and optimization of
uplink CoMP resource pools. These optimization
functions, which can be used when the schedulercontrolled power function is used, are enabled only
if this option is selected. This option applies only to
LTE FDD and LTE TDD.
GUI Value Range: UL_RBCALC_OPT_SWITCH
(UlRbCalcOptSwitch)
Unit: None
Actual Value Range: UL_RBCALC_OPT_SWITCH
Default Value: UL_RBCALC_OPT_SWITCH:Off
CellAlgoSwitch
DlSchSwitch
MOD CELLALGOSWITCH
LST CELLALGOSWITCH
LOFD-110205 /
TDLOFD-110227
LOFD-001016 /
TDLOFD-001016
LBFD-00101502 /
TDLBFD-00101502
LOFD-001109 /
TDLOFD-001109
LOFD-001070 /
TDLOFD-001070
TDLOFD-070224 /
TDLOFD-070222
LBFD-002025 /
TDLBFD-002025
LBFD-002031 /
TDLBFD-002031
LBFD-070102 /
TDLBFD-070102
Traffic Model
Based
Performance
Optimization
VoIP Semipersistent
Scheduling
Dynamic
Scheduling
DL Non-GBR
Packet
Bundling
Symbol Power
Saving
Scheduling
Based on Max
Bit Rate
Meaning:
Indicates whether to enable downlink scheduling
algorithms in a cell. This parameter includes the
following options:
FreqSelSwitch: Indicates whether to enable
frequency-selective scheduling. If this option is
selected, data is transmitted on the frequency
band of high channel quality. This option applies
only to LTE FDD and LTE TDD.
SpsSchSwitch: Indicates whether to enable semipersistent scheduling during talk spurts of VoLTE
services. If this option is selected, semi-persistent
scheduling is applied during talk spurts of VoLTE
services. If this option is deselected, dynamic
scheduling is applied during talk spurts of VoLTE
services. This option applies only to LTE FDD and
LTE TDD.
MBSFNShutDownSwitch: Indicates whether to
enable Multimedia Broadcast multicast service
LBFD-070106
LEOFD-121204
PDSCH
Efficiency
Improvement
3D
Beamforming
Meaning:
DlCellCoverEnhanceAlgoSw: Indicates whether to
enable cell coverage enhancement. Enabling this
function can increase the throughput of cell edge
UEs (CEUs) and improve cell coverage.
AdptCellEdgePwrAllocSw: Indicates whether to
enable adaptive power matching. Enabling this
function in a lightly loaded wide coverage area
helps improve the performance of CEUs. This
function is enabled only when this option is
selected. This option applies only to LTE FDD.
GUI Value Range: DlCellCoverEnhanceAlgoSw
(DlCellCoverEnhanceAlgoSw),
AdptCellEdgePwrAllocSw
(AdptCellEdgePwrAllocSw)
Unit: None
Actual Value Range: DlCellCoverEnhanceAlgoSw,
AdptCellEdgePwrAllocSw
Default Value: DlCellCoverEnhanceAlgoSw:off,
AdptCellEdgePwrAllocSw:off
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
LBFD-060202
LOFD-081218
LTROFD-111204 /
TDLOFD-121106
TDLBFD-002005
LBFD-060101
LBFD-060103 /
TDLBFD-080102
LEOFD-111305
LEOFD-111307
TDLOFD-121105
Basic
Scheduling
Support of
aperiodic CQI
reports
MBR>GBR
Configuration
Enhanced DL
Frequency
Selective
Enhanced
extended QCI
MCPTT Voice
Management
DL
Asynchronous
HARQ
Optimization
of Periodic
and Aperiodic
CQI Reporting
Enhanced DL
Frequency
Selective
Scheduling
Virtual 4T4R
eMIMO
PRRC and
DRX Policy
for Public
Safety
Single Frequency Network (MBSFN) subframe
shutdown. If this option is selected, MBSFN
subframe shutdown is applied. If this option is
deselected, MBSFN subframe shutdown is not
applied. This option takes effect only if the
SymbolShutdownSwitch option of the
PowerSaveSwitch parameter is selected. If the
MBSFNShutDownSwitch option is selected, the
setting of the switch for mapping SIBs to SI
messages becomes invalid. If the
MBSFNShutDownSwitch option is deselected, the
setting of the switch for mapping SIBs to SI
messages becomes valid. The
MBSFNShutDownSwitch option applies only to
LTE-only base stations. This option applies only to
LTE FDD and LTE TDD.
NonGbrBundlingSwitch: Indicates whether to
enable downlink non-GBR packet bundling. If this
option is selected, delay of non-GBR services can
be controlled in non-congestion scenarios. If this
option is deselected, delay of non-GBR services
cannot be controlled. This option applies only to
LTE FDD and LTE TDD.
EnAperiodicCqiRptSwitch: Indicates whether to
enable enhanced aperiodic channel quality
indicator (CQI) reporting. If this option is selected,
the eNodeB triggers aperiodic CQI reporting for a
UE based on downlink services of the UE and the
interval at which the UE sends periodic CQI
reports. If this option is deselected, UEs under
non-frequency-selective scheduling do not trigger
aperiodic CQI reporting based on downlink
services and trigger an aperiodic CQI reporting if
no valid periodic CQI reports are sent in eight
consecutive periodic CQI reporting periods. This
option applies only to LTE FDD and LTE TDD.
DlMbrCtrlSwitch: Indicates whether to enable
downlink scheduling based on the maximum bit
rate (MBR) and guaranteed bit rate (GBR) on GBR
bearers. If this option is selected, the eNodeB
performs downlink scheduling on GBR bearers
based on the MBR and GBR. If this option is
deselected, the eNodeB performs downlink
scheduling on GBR bearers based on the GBR
only. This option applies only to LTE FDD and LTE
TDD.
MbrDlSchSwitch: Indicates whether the eNodeB
performs downlink scheduling based on MBR. If
this option is selected, the eNodeB prioritizes UEs
based on the MBRs during downlink scheduling.
This parameter applies only to LTE TDD.
UeAmbrDlSchSwitch: Indicates whether the
eNodeB performs downlink scheduling based on
per UE aggregate maximum bit rates (UEAMBRs). If this option is selected, the eNodeB
prioritizes UEs based on the UE-AMBRs during
downlink scheduling. This option applies only to
LTE TDD.
EpfEnhancedSwitch: Indicates whether to enable
enhanced proportional fair (EPF) enhancement for
scheduling. EPF enhancement for scheduling is
enabled only if this option is selected. This option
applies only to LTE FDD and LTE TDD.
AperiodicCqiTrigOptSwitch: Indicates whether to
optimize triggering of aperiodic CQI reporting. If
this option is selected, a UE performing initial
access triggers aperiodic CQI reporting based on
related trigger conditions after the DLMAC
instance has been established for 200 ms and the
eNodeB receives MSG5. Consider that aperiodic
CQI reporting is triggered by invalid CQI reports in
eight consecutive CQI reporting periods. If cyclic
redundancy check (CRC) on aperiodic CQI reports
fails, aperiodic CQI reporting is not repeatedly
triggered when DRX is enabled; or aperiodic CQI
reporting is triggered after eight TTIs when DRX is
disabled. If this option is deselected, a UE
performing initial access triggers aperiodic CQI
reporting based on related trigger conditions after
the DLMAC instance has been established for 200
ms. Consider that aperiodic CQI reporting is
triggered by invalid CQI reports in eight
consecutive CQI reporting periods. If CRC on
aperiodic CQI reports fails, aperiodic CQI reporting
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
is triggered after eight TTIs, regardless of the DRX
status. This option applies only to LTE FDD and
LTE TDD.
VoipTbsBasedMcsSelSwitch: Indicates whether
the modulation and coding scheme (MCS) index is
selected based on the transport block size (TBS)
in downlink scheduling for VoLTE services. The
MCS index is selected based on the TBS in
downlink dynamic scheduling for VoLTE services
only if this option is selected. This option applies
only to LTE FDD and LTE TDD.
PagingInterfRandSwitch: Indicates whether to
enable interference randomization for paging
messages. If this option is selected, interference
randomization is enabled for paging messages.
This option applies only to LTE FDD and LTE
TDD.
DlSingleUsrMcsOptSwitch: Indicates conditions for
lowering the MCS index for a single UE. If this
option is selected, the MCS index can be lowered
for a UE if the UE is the only UE to be scheduled
in a transmission time interval (TTI). If this option is
deselected, the MCS index can be lowered for a
UE if the threshold for the function of lowering the
MCS index to increase the number of RBs is
reached and the UE is the only UE to be
scheduled in a TTI. This option applies only to LTE
FDD and LTE TDD.
UeSigMcsEnhanceSwitch: Indicates whether to
enable MCS optimization for UE signaling. If this
option is selected, MCS optimization for UE
signaling is enabled. For LTE FDD, the MCS index
for UE signaling is the same as the MCS index for
data. For LTE TDD, the MCS index for UE
signaling is lowered based on the MCS index for
data. If this option is deselected, a fixed low MCS
index is used for UE signaling. This option applies
only to LTE FDD and LTE TDD.
SubframeSchDiffSwitch: Indicates whether to
increase the number of UEs scheduled in
subframes 3 and 8 when uplink-downlink
configuration 2 is used. If this option is selected,
the number of UEs scheduled in subframes 3 and
8 is increased when uplink-downlink configuration
2 is used. If this option is deselected, the
scheduling policy used in subframes 3 and 8 is the
same as that used in other downlink subframes
when uplink-downlink configuration 2 is used. This
option applies only to LTE TDD.
TailPackagePriSchSwitch: Indicates whether to
enable scheduling of downlink connected tail
packages in the bearer. If this option is selected,
the connected tail package is scheduled
preferentially in the next TTI, which reduces the
delay and increases the transmission rate. If this
option is deselected, the scheduling policy of the
connected tail package is the same as other
downlink subframes. This option applies only to
LTE TDD.
SIB1InterfRandSwitch: Indicates whether to enable
SIB1 interference randomization. If this option is
selected, interference randomization is enabled for
SIB1. This option applies only to LTE TDD.
FreqSelJudgeIgnorDopplerSwitch: Indicates
whether to ignore Doppler conditions. If this option
is selected, Doppler conditions are ignored during
frequency selective channel determination. If this
option is deselected, Doppler conditions are
considered during frequency selective channel
determination. This parameter applies only to LTE
FDD.
EnhExtQCISpsSchSwitch: Indicates whether to
enable semi-persistent scheduling during talk
spurts of PTT services with standardized QCI 65,
standardized QCI 66, or an enhanced extended
QCI. If this option is selected, semi-persistent
scheduling is applied. If this option is deselected,
dynamic scheduling is applied. This option applies
only to LTE FDD and LTE TDD.
DlVoipBundlingSwitch: Indicates whether to enable
active packet bundling for downlink VoLTE
services. Active packet bundling is enabled for
downlink VoLTE services only if this option is
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
selected. If this option is selected, PDCCH
resources can be saved for downlink data services
or uplink services, thereby increasing the VoLTE
capacity for VoLTE services or increasing the
throughput of data services in mixed service
scenarios. However, the delay in VoLTE voice
packet scheduling will increase in the downlink and
MOSs may decrease. You are advised to deselect
this option if you prefer VoLTE performance and
do not expect MOS reduction. This option applies
only to LTE FDD and LTE TDD.
DlPacketLenAwareSchSw: Indicates whether to
enable packet length awareness performance
optimization in the downlink. Packet length
awareness performance optimization is enabled in
the downlink only if this option is selected. This
option applies only to LTE FDD and LTE TDD.
RLCArqFeedbackEnhancedSwitch: Indicates
whether to modify HARQ feedback results based
on RLC status reports when uplink-downlink
configuration 2 is used. If this option is selected,
the eNodeB modifies HARQ feedback results
based on RLC status reports after receiving the
reports. This prevents unnecessary HARQ
retransmissions. This option applies only to LTE
TDD.
PaReconfigOptSwitch: Indicates whether to enable
PA reconfiguration optimization. The optimization
is enabled when this option is selected. This option
applies only to LTE FDD and LTE TDD.
RankRapidRptSwitch: Indicates whether to enable
fast rank reporting. If this option is selected, an
aperiodic CQI reporting is immediately triggered
after successful network access. If this option is
deselected, an aperiodic CQI reporting is not
immediately triggered after successful network
access. This option applies only to LTE FDD and
LTE TDD.
DlRLCStateReportSchDelaySw: Indicates whether
to enable optimization on the delay-based
scheduling of downlink RLC status reports. The
optimization is enabled when this option is
selected. This option applies only to LTE FDD and
LTE TDD.
SmallPktMcsSelectAlgoSw: Indicates whether to
enable MCS selection for small packets. If this
option is selected, the scheduler selects an MCS
with a lower index based on the amount of data to
be initially transmitted and the allocated TBS in
each TTI on condition that the allocated TBS can
carry the data. The function is enabled only if this
option is selected. This option applies only to LTE
FDD and LTE TDD.
SRB0SplitSchSw: Indicates whether to enable
separate scheduling of SRB0 and contention
resolution MCE. If this option is selected, SRB0
and contention resolution MCE are separately
scheduled. This option applies only to LTE FDD
and LTE TDD.
BfUserPairPriorSwitch: Indicates whether to
preferentially allocate resources to paired
beamforming UEs for UE pairing features such as
MU beamforming and DMIMO. If this option is
selected, the eNodeB preferentially allocates
resources to paired beamforming UEs for UE
pairing features such as MU beamforming and
DMIMO. This option applies only to LTE TDD.
HarqAllocOptSwitch: Indicates whether to optimize
the allocation of HARQ processes. If this option is
selected, the downlink UE rate increases. This
option takes effect only when DMIMO or massive
MIMO is enabled. This option applies only to LTE
TDD.
Pusch32Switch: Indicates whether to enable the
PUSCH 3-2 feedback mode. If this option is
selected, UEs that support the PUSCH 3-2
feedback mode use this mode to aperiodically
report CQIs. If this option is deselected, the mode
cannot be used. This option applies only to LTE
FDD.
DlPreciseAmbrCtrlSwitch: Indicates whether to
enable precise downlink AMBR control. If this
option is selected, a more accurate optimization
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
algorithm applies to the AMBR control, which
achieves more accurate AMBR control. If this
option is deselected, the original AMBR control
algorithm is used. This option applies only to LTE
FDD and LTE TDD.
GUI Value Range: FreqSelSwitch(FreqSelSwitch),
SpsSchSwitch(SpsSchSwitch),
MBSFNShutDownSwitch
(MBSFNShutDownSwitch),
NonGbrBundlingSwitch(NonGbrBundlingSwitch),
EnAperiodicCqiRptSwitch
(EnAperiodicCqiRptSwitch), DlMbrCtrlSwitch
(DlMbrCtrlSwitch), MbrDlSchSwitch
(MbrDlSchSwitch), UeAmbrDlSchSwitch
(UeAmbrDlSchSwitch), EpfEnhancedSwitch
(EpfEnhancedSwitch), AperiodicCqiTrigOptSwitch
(AperiodicCqiTrigOptSwitch),
VoipTbsBasedMcsSelSwitch
(VoipTbsBasedMcsSelSwitch),
PagingInterfRandSwitch(PagingInterfRandSwitch),
DlSingleUsrMcsOptSwitch
(DlSingleUsrMcsOptSwitch),
SubframeSchDiffSwitch(SubframeSchDiffSwitch),
TailPackagePriSchSwitch
(TailPackagePriSchSwitch),
UeSigMcsEnhanceSwitch
(UeSigMcsEnhanceSwitch),
FreqSelJudgeIgnorDopplerSwitch
(FreqSelJudgeIgnorDopplerSwitch),
SIB1InterfRandSwitch(SIB1InterfRandSwitch),
EnhExtQCISpsSchSwitch
(EnhExtQCISpsSchSwitch), DlVoipBundlingSwitch
(DlVoipBundlingSwitch),
DlPacketLenAwareSchSw
(DlPacketLenAwareSchSw),
RLCArqFeedbackEnhancedSwitch
(RLCArqFeedbackEnhancedSwitch),
PaReconfigOptSwitch(PaReconfigOptSwitch),
RankRapidRptSwitch(RankRapidRptSwitch),
DlRLCStateReportSchDelaySw
(DlRLCStateReportSchDelaySw),
SmallPktMcsSelectAlgoSw
(SmallPktMcsSelectAlgoSw), SRB0SplitSchSw
(SRB0SplitSchSw), BfUserPairPriorSwitch
(BfUserPairPriorSwitch), HarqAllocOptSwitch
(HarqAllocOptSwitch), Pusch32Switch
(Pusch32Switch), DlPreciseAmbrCtrlSwitch
(DlPreciseAmbrCtrlSwitch)
Unit: None
Actual Value Range: FreqSelSwitch,
SpsSchSwitch, MBSFNShutDownSwitch,
NonGbrBundlingSwitch, EnAperiodicCqiRptSwitch,
DlMbrCtrlSwitch, MbrDlSchSwitch,
UeAmbrDlSchSwitch, EpfEnhancedSwitch,
AperiodicCqiTrigOptSwitch,
VoipTbsBasedMcsSelSwitch,
PagingInterfRandSwitch,
DlSingleUsrMcsOptSwitch,
SubframeSchDiffSwitch,
TailPackagePriSchSwitch,
UeSigMcsEnhanceSwitch,
FreqSelJudgeIgnorDopplerSwitch,
SIB1InterfRandSwitch, EnhExtQCISpsSchSwitch,
DlVoipBundlingSwitch, DlPacketLenAwareSchSw,
RLCArqFeedbackEnhancedSwitch,
PaReconfigOptSwitch, RankRapidRptSwitch,
DlRLCStateReportSchDelaySw,
SmallPktMcsSelectAlgoSw, SRB0SplitSchSw,
BfUserPairPriorSwitch, HarqAllocOptSwitch,
Pusch32Switch, DlPreciseAmbrCtrlSwitch
Default Value: FreqSelSwitch:Off,
SpsSchSwitch:Off, MBSFNShutDownSwitch:Off,
NonGbrBundlingSwitch:Off,
EnAperiodicCqiRptSwitch:Off,
DlMbrCtrlSwitch:Off, MbrDlSchSwitch:Off,
UeAmbrDlSchSwitch:Off, EpfEnhancedSwitch:Off,
AperiodicCqiTrigOptSwitch:On,
VoipTbsBasedMcsSelSwitch:On,
PagingInterfRandSwitch:Off,
DlSingleUsrMcsOptSwitch:Off,
SubframeSchDiffSwitch:Off,
TailPackagePriSchSwitch:Off,
UeSigMcsEnhanceSwitch:Off,
FreqSelJudgeIgnorDopplerSwitch:Off,
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
SIB1InterfRandSwitch:On,
EnhExtQCISpsSchSwitch:Off,
DlVoipBundlingSwitch:Off,
DlPacketLenAwareSchSw:Off,
RLCArqFeedbackEnhancedSwitch:Off,
PaReconfigOptSwitch:Off,
RankRapidRptSwitch:Off,
DlRLCStateReportSchDelaySw:Off,
SmallPktMcsSelectAlgoSw:Off,
SRB0SplitSchSw:Off, BfUserPairPriorSwitch:Off,
HarqAllocOptSwitch:Off, Pusch32Switch:Off,
DlPreciseAmbrCtrlSwitch:Off
CellCqiAdjAlgo
CqiOptSwitch
MOD CELLCQIADJALGO
LST CELLCQIADJALGO
LBFD-00101501 /
CQI
TDLBFD-00101501 Adjustment
Meaning:
Indicates whether to enable optimization
algorithms for CQI transmission on the PUCCH
and PUSCH.
PUSCH_CQI_FALSE_DETECTION_SW:
Indicates whether to enable the algorithm of
counteracting false detection of CQIs on the
PUSCH. The algorithm effectively reduces the
probability of false CQI detection. False CQI
detection occurs if a UE does not report a CQI but
the eNodeB detects a CQI from the UE. The
algorithm is enabled only if this option is selected.
This option applies only to LTE FDD and LTE
TDD.
PUCCH_CQI_FALSE_DETECTION_SW:
Indicates whether to enable the algorithm of
counteracting false detection of CQIs on the
PUCCH. The algorithm is enabled only if this
option is selected. This option applies only to LTE
FDD and LTE TDD.
GUI Value Range:
PUSCH_CQI_FALSE_DETECTION_SW
(PUSCH_CQI_FALSE_DETECTION_SW),
PUCCH_CQI_FALSE_DETECTION_SW
(PUCCH_CQI_FALSE_DETECTION_SW)
Unit: None
Actual Value Range:
PUSCH_CQI_FALSE_DETECTION_SW,
PUCCH_CQI_FALSE_DETECTION_SW
Default Value:
PUSCH_CQI_FALSE_DETECTION_SW:Off,
PUCCH_CQI_FALSE_DETECTION_SW:Off
CellDlschAlgo
FSUEAperCQITrigPeriod
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD00101502/TDLBFD00101502
LBFD002031/TDLBFD002031
LBFD-060103
Dynamic
Scheduling
Support of
aperiodic CQI
reports
Enhanced DL
Frequency
Selective
Scheduling
Meaning: Indicates the interval at which aperiodic
CQI reporting is triggered for UEs in frequency
selective scheduling. In high-load or heavy-traffic
scenarios, if downlink frequency selective
scheduling has a strong impact on uplink
performance, the parameter value can be
increased to reduce the impact at the cost of lower
gains of frequency selective scheduling. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: 1~100
Unit: ms
Actual Value Range: 1~100
Default Value: 2
CellDlschAlgo
FSUESbCQIValidityPeriod
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD00101502/TDLBFD00101502
LBFD002031/TDLBFD002031
LBFD-060103
Dynamic
Scheduling
Support of
aperiodic CQI
reports
Enhanced DL
Frequency
Selective
Scheduling
Meaning: Indicates the validity period of subband
CQIs aperiodically reported by UEs in frequency
selective scheduling. If the validity period of such a
CQI expires, the CQI becomes invalid. In high-load
or heavy-traffic scenarios, if UEs are motionless or
move at low speeds, the parameter value can be
increased at the cost of possible degraded
downlink performance. This parameter applies
only to LTE FDD and LTE TDD.
GUI Value Range: 1~100
Unit: ms
Actual Value Range: 1~100
Default Value: 10
DrxParaGroup
DrxReTxTimer
ADD DRXPARAGROUP
MOD DRXPARAGROUP
LST DRXPARAGROUP
LBFD-002017 /
TDLBFD-002017
LTROFD-111203 /
TDLOFD-121105
MLOFD-121280 /
TDLEOFD-121611
DRX
RRC and
DRX Policy
for Public
Safety
eMTC
Introduction
Meaning: Indicates the length of the DRX
Retransmission Timer. This parameter applies only
to LTE FDD and LTE TDD.
GUI Value Range: PSF1(1 PDCCH subframes),
PSF2(2 PDCCH subframes), PSF4(4 PDCCH
subframes), PSF6(6 PDCCH subframes), PSF8(8
PDCCH subframes), PSF16(16 PDCCH
subframes), PSF24(24 PDCCH subframes),
PSF33(33 PDCCH subframes), PSF40(40 PDCCH
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
subframes), PSF64(64 PDCCH subframes),
PSF80(80 PDCCH subframes), PSF96(96 PDCCH
subframes), PSF112(112 PDCCH subframes),
PSF128(128 PDCCH subframes), PSF160(160
PDCCH subframes), PSF320(320 PDCCH
subframes)
Unit: subframe
Actual Value Range: PSF1, PSF2, PSF4, PSF6,
PSF8, PSF16, PSF24, PSF33, PSF40, PSF64,
PSF80, PSF96, PSF112, PSF128, PSF160,
PSF320
Default Value: PSF8(8 PDCCH subframes)
CellDlschAlgo
DlHarqMaxTxNum
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD002025/TDLBFD002025
LBFD-002005 /
TDLBFD-002005
Basic
Scheduling
DL
Asynchronous
HARQ
Meaning: Indicates the maximum number of
downlink hybrid automatic repeat request (HARQ)
transmissions. For details, see 3GPP TS 36.331.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: 1~6
Unit: None
Actual Value Range: 1~6
Default Value: 5
CellDlschAlgo
DlschStrategy
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-002025 /
TDLBFD-002025
LBFD-001015 /
TDLBFD-001015
LBFD-00101502 /
TDLBFD-00101502
Basic
Scheduling
Enhanced
Scheduling
Dynamic
Scheduling
Meaning: Indicates the DL scheduling policy.
According to the Max C/I scheduling policy, the UE
with good-quality channels are scheduled and
hence the spectral efficiency is very high. The QoS
and fairness among users, however, cannot be
ensured. The Max C/I scheduling policy can be
used to verify the maximum capacity of the
system. The RR scheduling policy is the fairest
scheduling policy. When RR is adopted, the
system capacity is the smallest. Therefore, RR is
used only to verify the upper bound of the
scheduling fairness in the system. In terms of the
scheduling effect, the PF scheduling policy is
between the previous two policies. Therefore, PF
can be used to verify the capacity, coverage, and
fairness of the system. The EPF scheduling policy
supports the features such as user QoS, system
capacity, and channel frequency selection. The
basic scheduling policy is mainly used for the
performance test purpose. During common
operation, the EPF scheduling policy is
recommended. This parameter applies only to LTE
FDD and LTE TDD.
GUI Value Range: DLSCH_PRI_TYPE_EPF(EPF),
DLSCH_PRI_TYPE_PF(PF),
DLSCH_PRI_TYPE_MAX_CI(MAX C/I),
DLSCH_PRI_TYPE_RR(RR)
Unit: None
Actual Value Range: DLSCH_PRI_TYPE_EPF,
DLSCH_PRI_TYPE_PF,
DLSCH_PRI_TYPE_MAX_CI,
DLSCH_PRI_TYPE_RR
Default Value: DLSCH_PRI_TYPE_EPF(EPF)
CellDlschAlgo
NoSchStopACqiThd
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-00101502
LBFD-002031
LBFD-060103
Dynamic
Scheduling
Support of
aperiodic CQI
reports
Enhanced DL
Frequency
Selective
Scheduling
Meaning:
Indicates the threshold for stopping aperiodic CQI
reporting.
If the time interval between a UE's last downlink
scheduling and current downlink scheduling is
greater than or equal to this threshold, the UE
stops triggering CQI reporting within the current
TTI. This parameter applies only to LTE FDD.
GUI Value Range: 2~40
Unit: ms
Actual Value Range: 2~40
Default Value: 40
CellDlschAlgo
FreqSelJudgePeriod
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-060202
TDLBFD-00101502
/ LBFD-00101502
LBFD-060103
Enhanced DL
Frequency
Selective
Dynamic
Scheduling
Enhanced DL
Frequency
Selective
Scheduling
Meaning: Indicates the determination period for
frequency selective scheduling. If FreqSelSwitch of
the DlSchSwitch parameter is off, the
FreqSelJudgePeriod parameter setting does not
take effect. If FreqSelSwitch of the DlSchSwitch
parameter is on, a smaller value of the
FreqSelJudgePeriod parameter results that UEs
meeting frequency selective scheduling conditions
more easily enter the frequency selective
scheduling mode and a higher probability that the
UEs repeatedly enter and exit frequency selective
scheduling mode. A larger value of the
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
FreqSelJudgePeriod parameter results in the
opposite effects when FreqSelSwitch of the
DlSchSwitch parameter is on. This parameter
applies only to LTE FDD networks.
GUI Value Range: 1~10
Unit: s
Actual Value Range: 1~10
Default Value: 10
CellPdcchAlgo
PdcchSymNumSwitch
MOD CELLPDCCHALGO
LST CELLPDCCHALGO
LBFD-002003 /
TDLBFD-002003
LBFD-060103 /
TDLBFD-080102
Physical
Channel
Management
Enhanced DL
Frequency
Selective
Scheduling
Meaning: Indicates whether to enable dynamic
adjustment on the number of orthogonal frequency
division multiplexing (OFDM) symbols occupied by
the physical downlink control channel (PDCCH). If
this parameter is set to OFF(Off), the number of
OFDM symbols occupied by the PDCCH is fixed
and cannot be dynamically adjusted. If this
parameter is set to ON(On), the number of OFDM
symbols occupied by the PDCCH is dynamically
adjusted based on the required number of PDCCH
control channel elements (CCEs). The OFDM
symbol number adjustment range can be
determined by referring to the MML reference of
the InitPdcchSymNum parameter. If this parameter
is set to ECFIADAPTIONON(Enhanced CFI
Adaption On), the number of OFDM symbols
occupied by the PDCCH is dynamically adjusted
based on the cell downlink throughput, and the
adjustment performance is the best among the
three methods. The OFDM symbol number
adjustment range can be determined by referring
to the MML reference of the InitPdcchSymNum
parameter. If the EMTC_SWITCH option of the
EmtcAlgoSwitch parameter in a CellEmtcAlgo MO
is selected and the value of this parameter is
changed, the value of the startSymbolBR IE is
changed, and eMTC UEs that already accessed
the cell will be proactively released. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: OFF(Off), ON(On),
ECFIADAPTIONON(Enhanced CFI Adaption On)
Unit: None
Actual Value Range: OFF, ON,
ECFIADAPTIONON
Default Value: ECFIADAPTIONON(Enhanced CFI
Adaption On)
CellPdcchAlgo
InitPdcchSymNum
MOD CELLPDCCHALGO
LST CELLPDCCHALGO
LBFD-002003 /
TDLBFD-002003
Physical
Channel
Management
Meaning: Indicates the number of OFDM symbols
initially occupied by the PDCCH. If the switch for
dynamic adjustment of the number of OFDM
symbols occupied by the PDCCH is turned off, this
parameter indicates the fixed number of OFDM
symbols occupied by the PDCCH. For LTE TDD
cells, this parameter indicates the number of
OFDM symbols initially occupied by the PDCCH in
the downlink subframes in which only downlink
scheduling control information is transmitted. If the
switch for dynamic adjustment of the number of
OFDM symbols occupied by the PDCCH is turned
on and the bandwidth is 1.4 MHz or 3 MHz, the
PDCCH occupies 4 or 3 OFDM symbols,
respectively, and this parameter is invalid. If the
switch is turned on and the bandwidth is 5 MHz, 10
MHz, 15 MHz, or 20 MHz, the eNodeB adjusts the
number of OFDM symbols in the range of 1, 2, and
3 when this parameter is set to the default value 1,
or in the range of 2 and 3 when this parameter is
set to 2 or 3. For LTE TDD cells, if the switch is
turned on and the bandwidth is 5 MHz, the
eNodeB adjusts the number of OFDM symbols in
the range of 2 and 3 by default, and this parameter
is invalid. If the EMTC_SWITCH option of the
EmtcAlgoSwitch parameter in a CellEmtcAlgo MO
is selected and the value of this parameter is
changed, the value of the startSymbolBR IE is
changed, and eMTC UEs that already accessed
the cell will be proactively released. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: 1~4
Unit: None
Actual Value Range: 1~4
Default Value: 1
CellUlschAlgo
DopAlgoSwitch
MOD CELLULSCHALGO
LBFD-00101502
MO
Parameter ID
MML Command
Feature ID
LST CELLULSCHALGO
Feature Name
Description
Dynamic
Scheduling
Meaning: FastReportDopSwitch: Indicates whether
to shorten the period that the baseband processing
unit reports Doppler measurements to the MAC
layer. If this option is selected, the Doppler
measurement reporting period is shortened with
the predefined reporting conditions. If this option is
deselected, the Doppler measurements are
reported at the predefined periods and with the
predefined conditions. This option applies only to
LTE FDD and LTE TDD.
GUI Value Range: FastReportDopSwitch
(FastReportDopSwitch)
Unit: None
Actual Value Range: FastReportDopSwitch
Default Value: FastReportDopSwitch:Off
CellUlschAlgo
DopMeasLevel
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the Doppler measurement
level, which is used for selecting a Doppler
measurement policy. If this parameter is set to
CLASS_0, the demodulation reference signal
(DMRS) whose signal to interference plus noise
ratio (SINR) is greater than or equal to 5 dB is
used in Doppler measurement. If this parameter is
set to CLASS_1, the DMRS whose SINR is greater
than or equal to –5 dB is used in Doppler
measurement. This parameter does not take effect
on cells established on an LBBPc. This parameter
applies only to LTE FDD and LTE TDD.
GUI Value Range: CLASS_0(CLASS_0),
CLASS_1(CLASS_1)
Unit: None
Actual Value Range: CLASS_0, CLASS_1
Default Value: CLASS_0(CLASS_0)
CellDlschAlgo
HoStaticMcsTimer
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-002025 /
TDLBFD-002025
LBFD-00101502 /
TDLBFD-00101502
Meaning: Indicates the duration within which the
eNodeB performs downlink scheduling based on a
low modulation and coding scheme (MCS) order in
handovers. The eNodeB starts this timer after
determining a UE has entered the handover area
or has been handed over to the target cell. The
eNodeB performs downlink scheduling based on a
low MCS order during the running of this timer.
After the timer expires, the eNodeB performs
downlink scheduling based on a new MCS order
after CQI adjustment. This parameter applies only
to LTE FDD and LTE TDD.
GUI Value Range: 0~100
Unit: ms
Actual Value Range: 0~100
Default Value: 10
CellDlschAlgo
RBPriMcsSelectRatioThd
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-00101502/
Dynamic
TDLBFD-00101502 Scheduling
LBFD-070106
PDSCH
Efficiency
Improvement
Meaning: Indicates the selection ratio threshold for
the function of lowering the modulation and coding
scheme (MCS) index to increase the number of
resource blocks (RBs) with priority for UEs running
services with small packets. If the threshold of
TTIs within which downlink scheduling is
performed and RBs are surplus is less than this
parameter value, the function is enabled.The value
0 indicates that the function is disabled. The value
100 indicates that the function is always enabled.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: 0~100
Unit: %
Actual Value Range: 0~100
Default Value: 10
CellDlschAlgo
RBPriMcsSelectStrategy
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-00101501 /
TDLBFD-00101501
LBFD-00101502 /
TDLBFD-00101502
LBFD-070106
Meaning: Indicates how to apply the policy of
increasing the number of resource blocks (RBs) to
lower the modulation and coding scheme (MCS)
index. If this parameter is set to
SINGLEUSER_STRATEGY, the policy is applied
to a single RRC_CONNECTED UE whose
capability is limited (Maximum number of DL-SCH
transport block bits received within a TTI of the UE
is less than the maximum TBS with the total
number of PRBs). The policy is applied to a single
service when the following conditions are met
within a measurement period: (1) this parameter is
set to SINGLEUSER_STRATEGY; (2) the service
is the only service to be scheduled in the cell; (3)
the proportion of the transmission time intervals
Basic
Scheduling
Dynamic
Scheduling
CQI
Adjustment
Dynamic
Scheduling
PDSCH
Efficiency
Improvement
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
(TTIs) in which RBs are expected to be surplus is
less than a specified threshold. If this parameter is
set to MULTIUSER_STRATEGY, the policy is
applied to the last capability-limited UE to be
scheduled. If this parameter is set to
MULTIUSER_STRATEGY and the proportion of
TTIs in which RBs are expected to be surplus is
less than a specified threshold within a
measurement period, this strategy is applied to the
last UE to be scheduled. If this parameter is set to
MULTIUSR_LOWMCSLIMIT_STRATEGY, the
policy is applied to the last capability-limited UE to
be scheduled. If this parameter is set to
MULTIUSR_LOWMCSLIMIT_STRATEGY and the
proportion of TTIs in which RBs are expected to be
surplus is less than a specified threshold within a
measurement period, this strategy is applied to the
last UE to be scheduled, and the MCS index
decreases by a maximum of 3. This parameter
applies only to LTE FDD and LTE TDD.
GUI Value Range: SINGLEUSER_STRATEGY
(Single User Strategy), MULTIUSER_STRATEGY
(Multiple User Strategy),
MULTIUSR_LOWMCSLIMIT_STRATEGY(Multiple
User Lower MCS Limited Strategy)
Unit: None
Actual Value Range: SINGLEUSER_STRATEGY,
MULTIUSER_STRATEGY,
MULTIUSR_LOWMCSLIMIT_STRATEGY
Default Value: SINGLEUSER_STRATEGY(Single
User Strategy)
CellDlschAlgo
DataThdInPdcchPdschBal
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
LBFD-070106
PDSCH
Efficiency
Improvement
Meaning: Indicates the traffic volume threshold for
determining a bearer as one with large packets in
the PDCCH and PDSCH resource allocation
optimization mechanism. If this parameter is set to
0, the optimization mechanism does not take
effect. If this parameter is set to a non-zero value,
a bearer is determined as one with large packets
when the amount of to-be-scheduled data for the
bearer is greater than or equal to this value. If the
amounts of to-be-scheduled data for all bearers
are less than the value of this parameter, the
bearer with the largest amount of to-be-scheduled
data among all bearers is selected as the one with
large packets. This parameter applies only to LTE
FDD and LTE TDD.
GUI Value Range: 0~1000000
Unit: bit
Actual Value Range: 0~1000000
Default Value: 0
CellDlschAlgo
UeNumThdInPdcchPdschBal
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
LBFD-070106
PDSCH
Efficiency
Improvement
Meaning: Indicates the threshold for the number of
synchronized UEs in a cell above which the
PDCCH and PDSCH resource allocation
optimization mechanism is activated in large traffic
volume scenarios. If this parameter is set to a
value ranging from 0 to 10000 (indicating a
threshold from 0 UE to 10,000 UEs), the
mechanism is activated when the number of
synchronized UEs in the cell is greater than or
equal to this parameter value. This parameter
applies only to LTE FDD and LTE TDD.
GUI Value Range: 0~10000
Unit: None
Actual Value Range: 0~10000
Default Value: 10000
CellAlgoSwitch
CellSchStrategySwitch
MOD CELLALGOSWITCH
LST CELLALGOSWITCH
LBFD-00101502 /
TDLBFD-00101502
LBFD-002025 /
TDLBFD-002025
Meaning:
Indicates whether to enable a specific scheduling
policy in the uplink and downlink.
AbnUeSchSwitch: Indicates whether to disable
scheduling of abnormal UEs. If this switch is on,
abnormal UEs are not scheduled. If this switch is
off, abnormal UEs are scheduled. This option
applies only to LTE FDD and LTE TDD.
GUI Value Range: AbnUeSchSwitch
(AbnUeSchSwitch)
Unit: None
Actual Value Range: AbnUeSchSwitch
Default Value: AbnUeSchSwitch:Off
Enhanced
Scheduling
Basic
Scheduling
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
CellDlschAlgo
DlSchAbnUeThd
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-00101502 /
TDLBFD-00101502
LBFD-002025 /
TDLBFD-002025
Enhanced
Scheduling
Basic
Scheduling
Meaning: Indicates the threshold for the number of
consecutive discontinuous transmissions (DTXs) in
the downlink above which the eNodeB stops
scheduling the abnormal UE. The parameter value
range is from 6 to 120. This parameter applies only
to LTE FDD and LTE TDD.
GUI Value Range: 6~120
Unit: None
Actual Value Range: 6~120
Default Value: 15
CellDlschAlgo
CqiAdjInitialStep
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-00101501 /
CQI
TDLBFD-00101501 Adjustment
Meaning: Indicates the initial step in which channel
quality indicators (CQIs) are adjusted for UEs that
initially access or are handed over to the network.
If the periodically measured initial block error rate
(IBLER) exceeds the fixed IBLER threshold, the
CQI adjustment step is changed to its fixed default
value 0.1. This parameter applies only to LTE FDD
and LTE TDD.
GUI Value Range: 0~1000
Unit: None
Actual Value Range: 0~10, step:0.01
Default Value: 10
CellCqiAdjAlgo
InitDeltaCqi
MOD CELLCQIADJALGO
LST CELLCQIADJALGO
TDLBFD00101501/LBFD00101501
Meaning: Indicates the initial CQI adjustment
amount. This parameter applies only to LTE FDD
and LTE TDD.
GUI Value Range: -10~26
Unit: None
Actual Value Range: -10~26
Default Value: -4
CellDlschAlgo
NonGbrResourceRatio
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the proportion of resources
reserved for non-GBR services. A proportion of
resources is reserved periodically to prevent nonGBR services from failing to be allocated
resources. During the periods when resources are
reserved, resources are scheduled preferentially
for non-GBR services. If this parameter is set to 0,
resources are not reserved for non-GBR services.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: 0~50
Unit: %
Actual Value Range: 0~50
Default Value: 0
QciPara
DlMinGbr
ADD QCIPARA
MOD QCIPARA
LST QCIPARA
LBFD-00101502 /
TDLBFD-00101502
LOFD-00301101 /
TDLOFD-00301101
LOFD-00301103 /
TDLOFD-00301103
LOFD-003016 /
TDLOFD-003016
Meaning: Indicates the downlink minimum
guaranteed bit rate of the service. This parameter
applies only to LTE FDD and LTE TDD.
GUI Value Range: MinGbrRate_0_KB(0kB/s),
MinGbrRate_1_KB(1kB/s), MinGbrRate_2_KB
(2kB/s), MinGbrRate_4_KB(4kB/s),
MinGbrRate_8_KB(8kB/s), MinGbrRate_16_KB
(16kB/s), MinGbrRate_32_KB(32kB/s),
MinGbrRate_64_KB(64kB/s),
MinGbrRate_128_KB(128kB/s),
MinGbrRate_256_KB(256kB/s),
MinGbrRate_512_KB(512kB/s)
Unit: kB/s
Actual Value Range: MinGbrRate_0_KB,
MinGbrRate_1_KB, MinGbrRate_2_KB,
MinGbrRate_4_KB, MinGbrRate_8_KB,
MinGbrRate_16_KB, MinGbrRate_32_KB,
MinGbrRate_64_KB, MinGbrRate_128_KB,
MinGbrRate_256_KB, MinGbrRate_512_KB
Default Value: MinGbrRate_1_KB(1kB/s)
CellDlschAlgo
AmbrCtrlTcycle
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFDDynamic
00101502/TDLBFD- Scheduling
00101502
CQI
Adjustment
Dynamic
Scheduling
Transport
Overbooking
Transport
Resource
Overload
Control
Different
Transport
Paths based
on QoS Grade
Meaning: Indicates the interval at which the
eNodeB controls the downlink UE-AMBR. When
this parameter is set to AMBR_50_MS
(AMBR_50_MS), AMBR_100_MS
(AMBR_100_MS), AMBR_200_MS
(AMBR_200_MS), or AMBR_500_MS
(AMBR_500_MS), the eNodeB controls the
downlink UE-AMBR at an interval of 50, 100, 200,
or 500 ms in downlink scheduling. When this
parameter is set to AMBR_1000_MS
(AMBR_1000_MS), the eNodeB does not control
the UE-AMBR. This parameter applies only to LTE
FDD and LTE TDD.
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
GUI Value Range: AMBR_50_MS(AMBR_50_MS),
AMBR_100_MS(AMBR_100_MS),
AMBR_200_MS(AMBR_200_MS),
AMBR_500_MS(AMBR_500_MS),
AMBR_1000_MS(AMBR_1000_MS)
Unit: None
Actual Value Range: AMBR_50_MS,
AMBR_100_MS, AMBR_200_MS,
AMBR_500_MS, AMBR_1000_MS
Default Value: AMBR_50_MS(AMBR_50_MS)
CellDlschAlgo
RbgAllocStrategy
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD002025/TDLBFD002025
LBFD00101502/TDLBFD00101502
Basic
Scheduling
Dynamic
Scheduling
Meaning:
For services whose QoS class identifier (QCI) is
not 1: When this parameter is set to
ROUND_DOWN: (1) If the number of required
resource block groups (RBGs) is less than 1, the
actual number of RBs are allocated to UEs at the
current transmission time interval (TTI); (2) If the
number of required RBGs is greater than N but
less than N+1 (N is greater than or equal to 1),
RBs of N RBGs are allocated to UEs in the current
TTI and the other required RBs are allocated to
UEs in the next TTI. Setting this parameter to
ROUND_DOWN ensures full utilization of RBs, but
increases scheduling times and decreases
downlink data rate. If this parameter is set to
ROUND_UP and the number of required RBGs is
greater than N but less than N+1 (N is greater than
or equal to 0), RBs of N+1 RBGs are allocated to
UEs in the current TTI. Setting this parameter to
ROUND_UP wastes a few RBs, but decreases
scheduling times and increases downlink data
rate. When this parameter is set to ADAPTIVE: (1)
If the number of required RBGs is less than 1, the
actual number of RBs are allocated to UEs at the
current TTI; (2) If the number of required RBGs is
greater than N but less than N+1 (N is greater than
or equal to 1), RBs of N+1 RBGs are allocated to
UEs in the current TTI. Compared with setting this
parameter to ROUND_UP, setting this parameter
to ADAPTIVE does not waste RBs when the
number of required RBGs is less than 1.
For services whose QCI is 1 (such as VoIP
services): When this parameter is set to
ROUND_DOWN: (1) If the number of required
RBGs is less than 1, the actual number of RBs are
allocated to UEs at the current TTI; (2) If the
number of required RBGs is greater than N but
less than N+1 (N is greater than or equal to 1),
RBs of N+1 RBGs are allocated to UEs in the
current TTI. If this parameter is set to ROUND_UP
or ADAPTIVE, RBs are allocated to UEs in the
same way that they are allocated when this
parameter is set to ROUND_UP or ADAPTIVE for
services whose QCI is not 1, respectively. For ping
services: If the number of required RBGs is greater
than N but less than N+1 (N is greater than or
equal to 0), RBs of N+1 RBGs are allocated to
UEs in the current TTI regardless of the actual
parameter setting.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: ROUND_DOWN(Round Down),
ROUND_UP(Round Up), ADAPTIVE(Adaptive)
Unit: None
Actual Value Range: ROUND_DOWN,
ROUND_UP, ADAPTIVE
Default Value: ADAPTIVE(Adaptive)
CellAlgoSwitch
UlSchSwitch
MOD CELLALGOSWITCH
LST CELLALGOSWITCH
LOFD-001016 /
TDLOFD-001016
LOFD-001048 /
TDLOFD-001048
LBFD-00101502 /
TDLBFD-00101502
LBFD-002025 /
TDLBFD-002025
LBFD-070102 /
TDLBFD-070102
LOFD-001002
LOFD-001058 /
TDLOFD-001058
VoIP Semipersistent
Scheduling
TTI Bundling
Dynamic
Scheduling
Basic
Scheduling
MBR>GBR
Configuration
UL 2x2 MUMIMO
Meaning:
Indicates whether to enable uplink scheduling
functions for the cell.
SpsSchSwitch: Indicates whether to enable semipersistent scheduling during talk spurts of VoLTE
services. If this option is selected, semi-persistent
scheduling is applied. If this option is deselected,
dynamic scheduling is applied. This option applies
only to LTE FDD and LTE TDD.
SinrAdjustSwitch: Indicates whether to adjust the
measured SINR based on ACK/NACK messages
in the UL hybrid automatic repeat request (HARQ)
processes. This option applies only to LTE FDD
and LTE TDD.
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
LBFD-001006 /
TDLBFD-001006
LOFD-120205
LBFD-060102
TDLEOFD-121608
TDLEOFD-121609
TDLEOFD-121610
UL 2x4 MUMIMO
AMC
Uplink
Coverage
Improvement
for Video
Enhanced UL
Frequency
Selective
Scheduling
UL 2x64 MUMIMO
UL 4x64 MUMIMO
UL 8x64 MUMIMO
PreAllocationSwitch: Indicates whether to enable
preallocation in the uplink. If this option is selected:
(1) If the SmartPreAllocationSwitch option is
deselected and a UE is in the discontinuous
reception (DRX) state, preallocation is disabled for
the UE in the uplink; (2) If the
SmartPreAllocationSwitch option is deselected and
the UE is not in the DRX state, preallocation is
enabled for the UE in the uplink; (3) If the
SmartPreAllocationSwitch option is selected and
the SmartPreAllocationDuration parameter value is
greater than 0, smart preallocation is enabled for
the UE in the uplink; (4) If the
SmartPreAllocationSwitch option is selected and
the SmartPreAllocationDuration parameter value is
0, preallocation is disabled for the UE in the uplink.
If this option is deselected, preallocation is
disabled for the UE in the uplink. If bearer-level
preallocation or bearer-level smart preallocation is
enabled for a QCI, cell-level preallocation and celllevel smart preallocation do not apply to UEs with
the QCI. This option applies only to LTE FDD and
LTE TDD.
UlVmimoSwitch: Indicates whether to enable multiuser MIMO (MU-MIMO) in the uplink. If this option
is selected, the eNodeB performs MU-MIMO
pairing among UEs based on related principles.
UEs forming a pair transmit data using the same
time-frequency resources, which improves the
system throughput and spectral efficiency. This
option applies only to LTE FDD and LTE TDD.
TtiBundlingSwitch: Indicates whether to enable
transmission time interval (TTI) bundling. If TTI
bundling is enabled, more transmission
opportunities are available to UEs within the delay
budget for VoLTE services on the Uu interface,
thereby improving uplink coverage. This option
applies only to LTE FDD and LTE TDD.
ImIcSwitch: Indicates whether to enable the
intermodulation (IM) interference cancellation for
UEs. When data is transmitted in both the uplink
and downlink, uplink signals generate two IM
components symmetrically beside the Direct
Current (DC) subcarrier on the downlink receive
channel due to the nonlinearity of the UE receive
channel. If this option is selected, IM component
elimination is performed for UEs. If this option is
deselected, IM component elimination is not
performed for UEs. This option applies only to LTE
FDD cells working on frequency band 20. This
option applies only to LTE FDD.
SmartPreAllocationSwitch: Indicates whether to
enable uplink smart preallocation when the
PreAllocationSwitch option is selected. If both the
PreAllocationSwitch and this option are selected
and the SmartPreAllocationDuration parameter in
the CellPreallocGroup MO is set to a value greater
than 0, uplink smart preallocation is enabled.
Otherwise, uplink smart preallocation is disabled.
This option applies only to LTE FDD and LTE
TDD.
PuschDtxSwitch: Indicates whether the eNodeB
uses the PUSCH discontinuous transmission
(DTX) detection result during uplink scheduling. If
this option is selected for an LTE FDD cell, the
eNodeB determines whether to perform adaptive
retransmission, and also adjusts the CCE
aggregation level of the PDCCH carrying downlink
control information (DCI) format 0 based on the
PUSCH DTX detection result during uplink
scheduling. If an LTE FDD cell is established on
an LBBPc, this option takes effect only if the cell
uses less than four RX antennas and normal cyclic
prefix (CP) in the uplink and the SrsCfgInd
parameter in the SRSCfg MO is set to
BOOLEAN_TRUE(True). Note that the LBBPc
does not support PUSCH DTX detection for
VMIMO UEs. For an LTE TDD cell, this option
takes effect only when the uplink-downlink
subframe configuration is set to SA2 or SA5. If this
option takes effect, the eNodeB adjusts the CCE
aggregation level based on the PUSCH DTX
detection results. Note that LTE TDD cells
established on LBBPc boards do not support
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
PUSCH DTX detection. This option applies only to
LTE FDD and LTE TDD.
UlIblerAdjustSwitch: Indicates whether to enable
the uplink IBLER adjustment algorithm. If this
option is selected, the target IBLER is adjusted for
UEs based on the channel quality and fluctuation
to increase the cell throughput. This option applies
only to LTE FDD and LTE TDD. If this option is
selected independently for FDD cells with the
UlTargetIBlerAdaptType option deselected, the
algorithm does not take effect.
UlEnhancedFssSwitch: Indicates whether to
enable uplink load-based enhanced frequency
selective scheduling. This option applies only to
LTE FDD.
UlIicsAlgoSwitch: Indicates whether to enable the
uplink interference-intensity-based coordinated
scheduling (UL IICS) algorithm. If this option is
selected, interference can be reduced based on
accurate detection of user attributes and
scheduling resource coordination, increasing the
cell edge throughput. This option applies only to
LTE TDD.
UlEnhancedSrSchSwitch: Indicates whether uplink
re-scheduling is performed only when the On
Duration timer for the DRX long cycle starts. Uplink
re-scheduling is required if the number of HARQ
retransmissions for a scheduling request (SR)
reaches the maximum value but the scheduling
still fails. If this option is selected, uplink rescheduling is performed only when the On
Duration timer for the DRX long cycle starts. If this
option is deselected, uplink re-scheduling is
performed immediately when the number of HARQ
retransmissions for SR reaches the maximum
value but the scheduling still fails. It is
recommended that this option be selected for live
networks. This option applies only to LTE FDD and
LTE TDD.
SchedulerCtrlPowerSwitch: Indicates whether the
uplink scheduler performs scheduling without
considering power control restrictions. If this option
is selected, the uplink scheduler performs
scheduling without considering power control
restrictions, ensuring full utilization of the transmit
power for all UEs. If this option is deselected, the
uplink scheduler considers power control
restrictions while performing scheduling. In this
case, the transmit power cannot be fully used for
UEs at the cell edge or between the cell edge and
cell center. This option applies only to LTE FDD
and LTE TDD.
UlMinGbrSwitch: Indicates whether to ensure
uplink minimum guaranteed bit rate (GBR). If this
option is selected, the minimum GBR of non-GBR
services is ensured by increasing the scheduling
priority of UEs whose non-GBR service rates are
lower than the minimum GBR. This option applies
only to LTE FDD and LTE TDD.
UlMbrCtrlSwitch: Indicates whether to enable
uplink scheduling based on the maximum bit rate
(MBR) and guaranteed bit rate (GBR) on the GBR
bearer. If this option is selected, the eNodeB
performs uplink scheduling on GBR bearers based
on the MBR and GBR. If this option is deselected,
the eNodeB performs uplink scheduling on GBR
bearers based only on the GBR. This option
applies only to LTE FDD and LTE TDD.
MbrUlSchSwitch: Indicates whether the eNodeB
performs uplink scheduling based on the MBR. If
this option is selected, the eNodeB prioritizes UEs
based on the MBRs during uplink scheduling. This
option applies only to LTE TDD.
UeAmbrUlSchSwitch: Indicates whether the
eNodeB performs uplink scheduling based on the
aggregate maximum bit rate (AMBR) of UEs. If this
option is selected, the eNodeB prioritizes UEs
based on the AMBRs of UEs during uplink
scheduling. This option applies only to LTE TDD.
UlEnhancedDopplerSwitch: Indicates whether to
enable enhanced uplink scheduling based on
mobility speed estimation. If this option is selected,
enhanced uplink scheduling based on mobility
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
speed estimation is enabled. In enhanced uplink
scheduling based on mobility speed estimation,
the eNodeB uses Doppler measurement results to
identify low-speed UEs to further improve uplink
performance of low-speed UEs. If this option is
deselected, enhanced uplink scheduling based on
mobility speed is disabled. Enhanced uplink
scheduling based on mobility speed takes effect
only when the DopMeasLevel parameter is set to
CLASS_1(CLASS_1) and the
UlEnhancedDopplerSwitch option is selected. This
option does not apply to cells established on
LBBPc boards. This option applies only to LTE
FDD.
UlRaUserSchOptSw: Indicates whether the
eNodeB raises the scheduling priority of UEs
sending uplink access signaling, including MSG5
and the RRC Connection Reconfiguration
Complete message. If this option is selected, the
eNodeB raises the scheduling priority of UEs
sending uplink access signaling. If this option is
deselected, the eNodeB does not raise the
scheduling priority of UEs sending uplink access
signaling. In NB-IoT scenarios with air interface
resource congestion, this option restricts the
number of preambles to perform flow control on
UEs accessing the cell.
UlLast2RetransSchOptSwitch: Indicates whether
to optimize the scheduling policy for the last two
retransmissions. If this option is selected, the
scheduling policy is optimized for the last two
retransmissions. If the UE transmit power is not
limited, adaptive retransmission is used, and the
number of RBs increases in the last two
retransmissions to increase the receive success
rate of the last two retransmissions and decrease
uplink RBLER. If this option is deselected, the
scheduling policy is not optimized for the last two
retransmissions. This option applies only to LTE
FDD and LTE TDD.
UlInterfFssSwitch: Indicates whether to enable
interference-based uplink frequency-selective
scheduling. This option applies only to LTE FDD.
UlSmallRBSpectralEffOptSw: Indicates whether to
improve the spectral efficiency of small RBs in the
uplink. If this option is selected, the spectral
efficiency of small RBs in the uplink is optimized,
ensuring that the transmission block size
calculated based on optimized spectral efficiency
is not less than the traffic volume to be scheduled.
If this option is deselected, the spectral efficiency
of small RBs in the uplink is not optimized. This
option applies only to LTE FDD and LTE TDD.
PuschUsePucchRbSwitch: Indicates whether
PUCCH RBs can be occupied by the PUSCH. In
scenarios with a single user: If this option is
selected, PUCCH RBs can be occupied by the
PUSCH; if this option is deselected, PUCCH RBs
cannot be occupied by the PUSCH. In scenarios
with multiple users, PUCCH RBs cannot be
occupied by the PUSCH regardless of the setting
of this option. This option applies only to LTE FDD
and LTE TDD.
PuschDtxSchOptSwitch: If this option is selected,
the eNodeB determines whether to perform
adaptive retransmission based on the PUSCH
DTX detection result during uplink scheduling. This
option takes effect only when the uplink-downlink
subframe configuration SA2 or SA5 is used. If an
LTE TDD cell is established on an LBBPc, PUSCH
DTX detection is not supported. This option
applies only to LTE TDD.
PrachRbReuseSwitch: If this option is selected,
the PUSCH and PRACH transmissions can use
the same resource. If this option is deselected, the
PUSCH and PRACH transmissions cannot use the
same resource. This option applies only to LTE
FDD and LTE TDD.
ULFSSAlgoswitch: If this option is deselected,
uplink frequency-selective scheduling is disabled.
If this option is selected, uplink frequency-selective
scheduling is enabled. This option applies only to
LTE TDD.
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
SrSchDataAdptSw: Indicates whether to enable
data amount adaptation in SR-based scheduling.
Data amount adaptation in SR-based scheduling is
enabled only when this option is selected. This
option applies only to LTE FDD.
UlFssUserThdStSwitch: If this option is selected,
the UE number threshold is optimized for uplink
frequency selective scheduling. If this option is
deselected, the UE number threshold is not
optimized for uplink frequency selective
scheduling. This option applies only to LTE FDD
and LTE TDD.
HighOrderVMIMOSwitch: Indicates whether to
enable high order VMIMO. If this option is
selected, high order VMIMO is enabled. If this
option is deselected, high order VMIMO is
disabled. This option applies only to LTE TDD.
VMIMOReduceMCSRiseRBSwitch: Indicates
whether VMIMO pairing is performed for UEs
whose MCS index is reduced to increase the
number of RBs. If this option is selected, VMIMO is
performed for UEs whose MCS index is reduced to
increase the number of RBs. If this option is
deselected, VMIMO is not performed for UEs
whose MCS index is reduced to increase the
number of RBs. This option applies only to LTE
TDD.
VoLTEUeVmimoSwitch: Indicates whether VMIMO
pairing is performed for VoLTE UEs. If this option
is selected, VMIMO pairing is performed for VoLTE
UEs. If this option is deselected, VMIMO pairing is
not performed for VoLTE UEs. This option applies
only to LTE TDD.
TtiBundlingForVideoSwitch: If this option is
selected, TTI bundling is enabled for UEs running
video services in weak coverage areas, improving
video service coverage at the cell edge. If this
option is deselected, TTI bundling is disabled for
UEs running video services in weak coverage
areas. This option applies only to LTE FDD.
GUI Value Range: SpsSchSwitch(SpsSchSwitch),
SinrAdjustSwitch(SinrAdjustSwitch),
PreAllocationSwitch(PreAllocationSwitch),
UlVmimoSwitch(UlVmimoSwitch),
TtiBundlingSwitch(TtiBundlingSwitch), ImIcSwitch
(ImIcSwitch), SmartPreAllocationSwitch
(SmartPreAllocationSwitch), PuschDtxSwitch
(PuschDtxSwitch), UlIblerAdjustSwitch
(UlIblerAdjustSwitch), UlEnhancedFssSwitch
(UlEnhancedFssSwitch), UlEnhancedSrSchSwitch
(UlEnhancedSrSchSwitch),
SchedulerCtrlPowerSwitch
(SchedulerCtrlPowerSwitch), UlIicsAlgoSwitch
(UlIicsAlgoSwitch), UlMinGbrSwitch
(UlMinGbrSwitch), UlMbrCtrlSwitch
(UlMbrCtrlSwitch), MbrUlSchSwitch
(MbrUlSchSwitch), UeAmbrUlSchSwitch
(UeAmbrUlSchSwitch), UlEnhancedDopplerSwitch
(UlEnhancedDopplerSwitch), UlRaUserSchOptSw
(UlRaUserSchOptSw),
UlLast2RetransSchOptSwitch
(UlLast2RetransSchOptSwitch), UlInterfFssSwitch
(UlInterfFssSwitch), UlSmallRBSpectralEffOptSw
(UlSmallRBSpectralEfficiencyOptSw),
PuschUsePucchRbSwitch
(PuschUsePucchRbSwitch),
PuschDtxSchOptSwitch(PuschDtxSchOptSwitch),
ULFSSAlgoSwitch(ULFSSAlgoSwitch),
PrachRbReuseSwitch(PrachRbReuseSwitch),
SrSchDataAdptSw(SrSchDataAdptSw),
UlFssUserThdStSwitch(UlFssUserThdStSwitch),
HighOrderVMIMOSwitch
(HighOrderVMIMOSwitch),
VMIMOReduceMCSRiseRBSwitch
(VMIMOReduceMCSRiseRBSwitch),
VoLTEUeVmimoSwitch(VoLTEUeVmimoSwitch),
TtiBundlingForVideoSwitch
(TtiBundlingForVideoSwitch)
Unit: None
Actual Value Range: SpsSchSwitch,
SinrAdjustSwitch, PreAllocationSwitch,
UlVmimoSwitch, TtiBundlingSwitch, ImIcSwitch,
SmartPreAllocationSwitch, PuschDtxSwitch,
UlIblerAdjustSwitch, UlEnhancedFssSwitch,
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
UlEnhancedSrSchSwitch,
SchedulerCtrlPowerSwitch, UlIicsAlgoSwitch,
UlMinGbrSwitch, UlMbrCtrlSwitch,
MbrUlSchSwitch, UeAmbrUlSchSwitch,
UlEnhancedDopplerSwitch, UlRaUserSchOptSw,
UlLast2RetransSchOptSwitch, UlInterfFssSwitch,
UlSmallRBSpectralEffOptSw,
PuschUsePucchRbSwitch,
PuschDtxSchOptSwitch, ULFSSAlgoSwitch,
PrachRbReuseSwitch, SrSchDataAdptSw,
UlFssUserThdStSwitch, HighOrderVMIMOSwitch,
VMIMOReduceMCSRiseRBSwitch,
VoLTEUeVmimoSwitch,
TtiBundlingForVideoSwitch
Default Value: SpsSchSwitch:Off,
SinrAdjustSwitch:On, PreAllocationSwitch:On,
UlVmimoSwitch:Off, TtiBundlingSwitch:Off,
ImIcSwitch:Off, SmartPreAllocationSwitch:On,
PuschDtxSwitch:On, UlIblerAdjustSwitch:Off,
UlEnhancedFssSwitch:On,
UlEnhancedSrSchSwitch:On,
SchedulerCtrlPowerSwitch:Off,
UlIicsAlgoSwitch:Off, UlMinGbrSwitch:Off,
UlMbrCtrlSwitch:Off, MbrUlSchSwitch:Off,
UeAmbrUlSchSwitch:Off,
UlEnhancedDopplerSwitch:On,
UlRaUserSchOptSw:Off,
UlLast2RetransSchOptSwitch:On,
UlInterfFssSwitch:Off,
UlSmallRBSpectralEffOptSw:Off,
PuschUsePucchRbSwitch:Off,
PuschDtxSchOptSwitch:Off,
ULFSSAlgoSwitch:On, PrachRbReuseSwitch:Off,
SrSchDataAdptSw:On,
UlFssUserThdStSwitch:Off,
HighOrderVMIMOSwitch:Off,
VMIMOReduceMCSRiseRBSwitch:Off,
VoLTEUeVmimoSwitch:Off,
TtiBundlingForVideoSwitch:Off
CellUlschAlgo
UlSrSchDateLen
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the data length that the UL
scheduler assigns to UEs that have sent
scheduling requests. Within the data length, the
UEs reports their buffer status and transmit certain
data. This parameter applies only to LTE FDD and
LTE TDD.
GUI Value Range: 16~15000
Unit: bit
Actual Value Range: 16~15000
Default Value: 600
CellUlschAlgo
AdaptHarqSwitch
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-002006 /
TDLBFD-002006
LBFD-002025 /
TDLBFD-002025
LBFD-001015 /
TDLBFD-001015
LBFD-00101502 /
TDLBFD-00101502
Meaning: Indicates the switch that is used to
control whether to enable or disable UL adaptive
HARQ. If this switch is set to
ADAPTIVE_HARQ_SW_OFF, UL data is
retransmitted by non-adaptive synchronous
HARQ. If this switch is set to
ADAPTIVE_HARQ_SW_ON, UL data is
retransmitted by adaptive synchronous HARQ. If
this switch is set to
ADAPTIVE_HARQ_SW_SEMION, adaptive HARQ
is triggered when a UL grant is delivered to an
HARQ process that is previously suspended due
to reasons such as resource collision, activation of
a measurement gap, and PDCCH congestion.
Setting this parameter to
ADAPTIVE_HARQ_SW_ON helps reduce
resource consumption due to retransmission,
increase the cell throughput, and prevent
retransmission conflicts. This, on the other hand,
will increase signaling overhead and therefore
consume more PDCCH resources. This parameter
applies only to LTE FDD and LTE TDD.
GUI Value Range: ADAPTIVE_HARQ_SW_ON
(On), ADAPTIVE_HARQ_SW_OFF(Off),
ADAPTIVE_HARQ_SW_SEMI_ON(SemiOn)
Unit: None
Actual Value Range: ADAPTIVE_HARQ_SW_ON,
ADAPTIVE_HARQ_SW_OFF,
ADAPTIVE_HARQ_SW_SEMI_ON
Default Value: ADAPTIVE_HARQ_SW_SEMI_ON
(SemiOn)
CellUlschAlgo
PuschDtxSchStrategy
MOD CELLULSCHALGO
UL
Synchronous
HARQ
Basic
Scheduling
Enhanced
Scheduling
Dynamic
Scheduling
MO
Parameter ID
MML Command
Feature ID
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Feature Name
Description
Meaning: Indicates the scheduling policy for the
initial PUSCH transmission that is detected as
discontinuous transmission (DTX) when
PuschDtxSwitch of the UlSchSwitch parameter is
on. If the PuschDtxSchStrategy parameter is set to
NEW_TX, initial transmission instead of
retransmission is performed when the initial
PUSCH transmission is detected as DTX. If the
PuschDtxSchStrategy parameter is set to
ADAPTIVE_RETX, adaptive retransmission is
performed when the initial PUSCH transmission is
detected as DTX. If the PuschDtxSchStrategy
parameter is set to EN_ADAPTIVE_RETX,
adaptive retransmission is performed for UEs
running voice services when the initial PUSCH
transmission is detected as DTX in DRX scenarios
regardless of whether the UEs are in DRX sleep or
active time at the retransmission. This parameter
applies only to LTE FDD.
GUI Value Range: NEW_TX(NEW_TX),
ADAPTIVE_RETX(ADAPTIVE_RETX),
EN_ADAPTIVE_RETX(EN_ADAPTIVE_RETX)
Unit: None
Actual Value Range: NEW_TX, ADAPTIVE_RETX,
EN_ADAPTIVE_RETX
Default Value: ADAPTIVE_RETX
(ADAPTIVE_RETX)
DrxParaGroup
OnDurationTimer
ADD DRXPARAGROUP
MOD DRXPARAGROUP
LST DRXPARAGROUP
LBFD-002017 /
TDLBFD-002017
LEOFD-111306
LOFD-00110501
LTROFD-111203 /
TDLOFD-121105
MLOFD-121280 /
TDLEOFD-121611
DRX
Breathing
Pilot
Dynamic DRX
RRC and
DRX Policy
for Public
Safety
eMTC
Introduction
Meaning: Indicates the length of the On Duration
Timer. If the configured value does not meet the
restrictions of CQI reporting intervals and SRS
transmission intervals, the actual value of this
parameter assigned to a UE may be greater than
the configured value. This parameter applies only
to LTE FDD and LTE TDD.
GUI Value Range: PSF1(1 PDCCH subframes),
PSF2(2 PDCCH subframes), PSF3(3 PDCCH
subframes), PSF4(4 PDCCH subframes), PSF5(5
PDCCH subframes), PSF6(6 PDCCH subframes),
PSF8(8 PDCCH subframes), PSF10(10 PDCCH
subframes), PSF20(20 PDCCH subframes),
PSF30(30 PDCCH subframes), PSF40(40 PDCCH
subframes), PSF50(50 PDCCH subframes),
PSF60(60 PDCCH subframes), PSF80(80 PDCCH
subframes), PSF100(100 PDCCH subframes),
PSF200(200 PDCCH subframes), PSF300(300
PDCCH subframes), PSF400(400 PDCCH
subframes), PSF500(500 PDCCH subframes),
PSF600(600 PDCCH subframes), PSF800(800
PDCCH subframes), PSF1000(1000 PDCCH
subframes), PSF1200(1200 PDCCH subframes),
PSF1600(1600 PDCCH subframes)
Unit: subframe
Actual Value Range: PSF1, PSF2, PSF3, PSF4,
PSF5, PSF6, PSF8, PSF10, PSF20, PSF30,
PSF40, PSF50, PSF60, PSF80, PSF100, PSF200,
PSF300, PSF400, PSF500, PSF600, PSF800,
PSF1000, PSF1200, PSF1600
Default Value: PSF2(2 PDCCH subframes)
SRSCfg
SrsCfgInd
MOD SRSCFG
LST SRSCFG
LBFD-002003 /
TDLBFD-002003
TDLAOFD-081409
TDLEOFD-121615
TDLOFD-001049
Physical
Channel
Management
DL 4-Layer
MIMO Based
on TM9
DL Flexible
3DBeamforming
Single
Streaming
Beamforming
Meaning: Indicates whether to configure sounding
reference signal (SRS) resources for UEs in a cell.
The value BOOLEAN_TRUE indicates that SRS
resources are available in the cell and can be
configured for UEs in the cell. The value
BOOLEAN_FALSE indicates that no SRS
resource is available in the cell, and therefore no
UE in the cell is configured with SRS resources.
This parameter does not take effect on: (1) FDD
cell that is established on an LBBPc and uses four
or more RX antennas. (2) FDD cell that is
established on an LBBPc and uses extended
cyclic prefix (CP) in the uplink. (3) TDD cell
established on an LBBPc. If this parameter does
not take effect on a cell but SRS resources are
available in the cell, SRS resources can be
configured for UEs in the cell. This parameter
applies only to LTE FDD and LTE TDD.
GUI Value Range: BOOLEAN_FALSE(False),
BOOLEAN_TRUE(True)
Unit: None
Actual Value Range: BOOLEAN_FALSE,
BOOLEAN_TRUE
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
Default Value: BOOLEAN_TRUE(True)
CellUlschAlgo
UlHarqMaxTxNum
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD002025/TDLBFD002025
LBFD-002006 /
TDLBFD-002006
Basic
Scheduling
UL
Synchronous
HARQ
Meaning: Indicates the maximum number of uplink
HARQ transmissions, excluding the HARQ
transmission based on TTI bundling. For details,
see 3GPP TS 36.331. When a UE runs services
with a QCI of 1, the smaller value between the
parameter value and 5 is used as the maximum
number of uplink HARQ transmissions. When the
UE does not run services with a QCI of 1, the
parameter value is used as the maximum number
of uplink HARQ transmissions. This parameter has
coupling relationships with the
ENodeBAmReorderingTimer or the
ENodeBUmReorderingTimer parameter. When the
UlHarqMaxTxNum parameter is set to 7, it is
recommended that the
ENodeBAmReorderingTimer or
ENodeBAUmReorderingTimer parameter be set to
a value greater than or equal to 50 ms. When the
UlHarqMaxTxNum parameter is set to 8, it is
recommended that the
ENodeBAmReorderingTimer or
ENodeBAUmReorderingTimer parameter be set to
a value greater than or equal to 60 ms. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: 1~8
Unit: None
Actual Value Range: 1~8
Default Value: 5
RlcPdcpParaGroup
ENodeBAmReorderingTimer
ADD
RLCPDCPPARAGROUP
MOD
RLCPDCPPARAGROUP
LST
RLCPDCPPARAGROUP
LBFD-002008 /
TDLBFD-002008
LOFD-120204
TDLOFD-120203
MLOFD-121280 /
TDLEOFD-121611
Radio Bearer
Management
VoLTE
Coverage
Enhancement
Based on
Extended
Delay Budget
Deep
Coverage
Improvement
for VoLTE
eMTC
Introduction
Meaning: Indicates the length of the eNodeBspecific timer for reordering at the receiver in AM.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: Treordering_m0(0),
Treordering_m5(5), Treordering_m10(10),
Treordering_m15(15), Treordering_m20(20),
Treordering_m25(25), Treordering_m30(30),
Treordering_m35(35), Treordering_m40(40),
Treordering_m45(45), Treordering_m50(50),
Treordering_m55(55), Treordering_m60(60),
Treordering_m65(65), Treordering_m70(70),
Treordering_m75(75), Treordering_m80(80),
Treordering_m85(85), Treordering_m90(90),
Treordering_m95(95), Treordering_m100(100),
Treordering_m110(110), Treordering_m120(120),
Treordering_m130(130), Treordering_m140(140),
Treordering_m150(150), Treordering_m160(160),
Treordering_m170(170), Treordering_m180(180),
Treordering_m190(190), Treordering_m200(200),
Treordering_m1600(1600)
Unit: ms
Actual Value Range: Treordering_m0,
Treordering_m5, Treordering_m10,
Treordering_m15, Treordering_m20,
Treordering_m25, Treordering_m30,
Treordering_m35, Treordering_m40,
Treordering_m45, Treordering_m50,
Treordering_m55, Treordering_m60,
Treordering_m65, Treordering_m70,
Treordering_m75, Treordering_m80,
Treordering_m85, Treordering_m90,
Treordering_m95, Treordering_m100,
Treordering_m110, Treordering_m120,
Treordering_m130, Treordering_m140,
Treordering_m150, Treordering_m160,
Treordering_m170, Treordering_m180,
Treordering_m190, Treordering_m200,
Treordering_m1600
Default Value: Treordering_m40(40)
RlcPdcpParaGroup
ENodeBUmReorderingTimer
ADD
RLCPDCPPARAGROUP
MOD
RLCPDCPPARAGROUP
LST
RLCPDCPPARAGROUP
LBFD-002008 /
TDLBFD-002008
LOFD-120204
TDLOFD-120203
MLOFD-121280 /
TDLEOFD-121611
Radio Bearer
Management
VoLTE
Coverage
Enhancement
Based on
Extended
Delay Budget
Deep
Coverage
Improvement
for VoLTE
Meaning: Indicates the length of the eNodeBspecific timer for reordering at the receiver in UM.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: Treordering_m0(0),
Treordering_m5(5), Treordering_m10(10),
Treordering_m15(15), Treordering_m20(20),
Treordering_m25(25), Treordering_m30(30),
Treordering_m35(35), Treordering_m40(40),
Treordering_m45(45), Treordering_m50(50),
Treordering_m55(55), Treordering_m60(60),
Treordering_m65(65), Treordering_m70(70),
MO
CellUlschAlgo
Parameter ID
UlEnhencedVoipSchSw
MML Command
MOD CELLULSCHALGO
LST CELLULSCHALGO
Feature ID
LBFD-00101502 /
TDLBFD-00101502
LOFD001016/TDLOFD001016
LOFD-001048 /
TDLOFD-001048
LOFD-081229 /
TDLOFD-081229
TDLBFD-111101
LBFD-081104 /
TDLBFD-081105
LOFD120204/TDLOFD120203
LBFD-002025 /
TDLBFD-002025
TDLOFD-111208
Feature Name
Description
eMTC
Introduction
Treordering_m75(75), Treordering_m80(80),
Treordering_m85(85), Treordering_m90(90),
Treordering_m95(95), Treordering_m100(100),
Treordering_m110(110), Treordering_m120(120),
Treordering_m130(130), Treordering_m140(140),
Treordering_m150(150), Treordering_m160(160),
Treordering_m170(170), Treordering_m180(180),
Treordering_m190(190), Treordering_m200(200),
Treordering_m1600(1600)
Unit: ms
Actual Value Range: Treordering_m0,
Treordering_m5, Treordering_m10,
Treordering_m15, Treordering_m20,
Treordering_m25, Treordering_m30,
Treordering_m35, Treordering_m40,
Treordering_m45, Treordering_m50,
Treordering_m55, Treordering_m60,
Treordering_m65, Treordering_m70,
Treordering_m75, Treordering_m80,
Treordering_m85, Treordering_m90,
Treordering_m95, Treordering_m100,
Treordering_m110, Treordering_m120,
Treordering_m130, Treordering_m140,
Treordering_m150, Treordering_m160,
Treordering_m170, Treordering_m180,
Treordering_m190, Treordering_m200,
Treordering_m1600
Default Value: Treordering_m40(40)
Dynamic
Scheduling
VoIP Semipersistent
Scheduling
TTI Bundling
Voice
Characteristic
Awareness
Scheduling
Active
Scheduling of
Edge Voice
Users
UL
Compensation
Scheduling
VoLTE
Coverage
Enhancement
Based on
Extended
Delay
Budget/Deep
Coverage for
VoLTE
Basic
Scheduling
Uplink
Interference
Coordination
Meaning:
Indicates whether to enhance uplink scheduling for
VoIP services. This parameter includes the
following options:
UlVoipPreAllocationSwtich: Indicates whether to
pre-schedule VoIP UEs during talk spurts when
the number of online UEs in a cell exceeds 50. If
this option is deselected, VoIP UEs are not prescheduled. If this option is selected, VoIP UEs are
pre-scheduled. This option applies only to LTE
FDD.
UlVoipDelaySchSwitch: Indicates whether to
schedule VoIP UEs based on delays when there
are a large number of VoIP UEs in a cell and these
UEs are evenly distributed. If this option is
deselected, VoIP UEs are not scheduled based on
delays. If this option is selected, the scheduling
priorities for VoIP UEs are calculated based on
delays. This option applies only to LTE TDD cells.
UlVoIPLoadBasedSchSwitch: Indicates whether to
enable adaptive selection of scheduling modes for
VoIP UEs based on the cell load. Two scheduling
modes are provided: dynamic scheduling and
semi-persistent scheduling. If this option is
deselected, adaptive selection of dynamic and
semi-persistent scheduling cannot be performed
for VoIP UEs based on the cell load. If this option
is selected, dynamic and semi-persistent
scheduling can be adaptively selected for VoIP
UEs based on the cell load.
UlVoipSchOptSwitch: Indicates whether to
optimize scheduling for VoIP UEs in the uplink. If
this option is deselected, scheduling is not
optimized for VoIP UEs in the uplink. If this option
is selected, uplink dynamic scheduling is triggered
once for VoIP UEs adopting this scheduling mode
when the scheduling interval is longer than the
uplink scheduling interval threshold for VoIP UEs.
This ensures timely uplink scheduling for VoIP
UEs even when SR missing detections occur,
avoiding packet losses caused by the expiration of
the PDCP packet discarding timer.
UlVoLTEDataSizeEstSwitch: Indicates whether to
estimate the volume of traffic to be dynamically
scheduled for VoIP services in the uplink. If this
option is deselected, the eNodeB does not
estimate the volume of traffic to be dynamically
scheduled for VoLTE services in the uplink. If this
option is selected, the eNodeB estimates the traffic
volume to be dynamically scheduled for VoLTE
services in the uplink. This shortens the VoLTE
packet delay, reduces the VoLTE packet loss rate,
and improves the voice quality.
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
UlVoipServStateEnhancedSw: Indicates whether
to enhance the determination of VoIP service
states (either in talk spurts or silent periods) in the
uplink. If this option is deselected, the
determination of VoIP service states in the uplink
is not enhanced. If this option is selected, the
determination of VoIP service states in the uplink
is enhanced. In this case, the delay in voice
service state determination in the uplink is
shortened, lowering the probability of voice service
states being incorrectly determined in silent
periods. When the UlVoipSchOptSwitch option of
the same parameter is also selected, the VoIP
packet losses caused by SR missing detections
decrease, and the voice quality improves,
especially the voice quality during initial accesses
and handovers.
UlVoipRblerControlSwitch: Indicates whether to
optimize retransmission for uplink VoIP services. If
this option is deselected, the eNodeB does not
optimize retransmission for uplink VoIP services. If
this option is selected, the eNodeB optimizes
retransmission for uplink VoIP services when VoIP
UEs perform uplink adaptive retransmissions. As a
result, an MCS with a lower index is selected,
reducing the VoIP packet losses caused by uplink
HARQ retransmission failures.
UlEdgeActiveSchSwitch: Indicates whether to
enable proactive dynamic scheduling for cell edge
VoLTE UEs. If this option is deselected, active
dynamic scheduling is disabled for cell edge
VoLTE UEs. If this option is selected, active
dynamic scheduling is enabled for cell edge
VoLTE UEs. In this case, the eNodeB estimates
the traffic volume to be dynamically scheduled for
VoLTE services in the uplink, and proactively
schedules VoLTE UEs based on the estimation
results if fragmentation is required due to limited
uplink power. As a result, the packet delay is
shortened, and the timeout-caused packet loss
rate for VoLTE services is reduced, improving the
voice quality. This option applies only to LTE TDD.
UlMcsRestraintAfterSpsRelSw: Indicates whether
to restrict the MCS for uplink dynamic scheduling
after uplink semi-persistent scheduling release. If
this option is deselected, the eNodeB does not
restrict the MCS for uplink dynamic scheduling
after uplink semi-persistent scheduling release. If
this option and the SpsSchSwitch option of the
UlSchSwitch parameter are selected, the eNodeB
restricts the MCS for uplink dynamic scheduling
after uplink semi-persistent scheduling release. In
this case, the reliability of uplink dynamic
scheduling transmission after uplink semipersistent scheduling release can be guaranteed,
and the voice quality improves.
SpsAndDrxOptSwitch: Indicates whether to
optimize the cooperation between semi-persistent
scheduling and DRX. If this option is deselected,
power control commands for semi-persistent
scheduling can be delivered during the DRX sleep
time. If this option is selected, power control
commands for semi-persistent scheduling can be
delivered only during the DRX On Duration period,
but not during the DRX sleep time.
UlCallMuteRecoverSwitch: Indicates whether to
enable voice mute recovery in the uplink. If this
option is deselected, the eNodeB does not perform
voice mute recovery. If this option is selected, the
eNodeB performs voice activity detection (VAD) on
UEs running voice services and performs intra-cell
handovers for or releases the RRC connections of
UEs on which speech absence is detected to
recreate the radio bearers.
UlVoipCrosslayerOptSwitch: Indicates whether to
enable cross-layer optimization for VoIP services
in the uplink. If this option is deselected, the
eNodeB does not perform cross-layer optimization
for VoIP services in the uplink. If this option is
selected, the eNodeB optimizes the PDCP packet
discarding timer for uplink QCI 1 services, the
timer for QCI 1 service packet resequencing on the
eNodeB as the receiver in UM mode, and the
maximum number of transmissions on the MAC
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
layer in the uplink. Then, based on the optimization
result, the eNodeB estimates the volume of traffic
to be dynamically scheduled for VoIP services in
the uplink, selects an optimal MCS, and allocates
an optimal number of RBs to such services. In this
way, the uplink VoIP packet loss rate decreases,
and the voice quality improves.
UlVoLTEContinuousSchSw: Indicates whether to
enable continuous scheduling for uplink VoLTE
services. The continuous scheduling function is
enabled only if this option is selected. When this
function is enabled, the eNodeB continuously
schedules VoLTE UEs during uplink talk spurts to
reduce uplink scheduling delay, packet delay, and
packet jitter for VoLTE UEs and improve voice
quality.
UlMixVoLTEOptSwitch: Indicates whether to
optimize the scheduling for a UE running uplink
voice and data services simultaneously. The
eNodeB optimizes the scheduling for a UE running
uplink voice and data services simultaneously only
when this option is selected. If this option is
selected, the eNodeB allocates a bandwidth
suitable for scheduling of voice packets to VoLTE
UEs running both voice and data services,
ensuring that voice services are preferentially
scheduled and lowering the packet loss rate of
QCI 1 bearers when the voice service load is
heavy. This option applies only to LTE FDD and
LTE TDD.
VoLTEPwrOptSwitch: Indicates whether to
optimize power control for VoLTE UEs. If this
option is selected, the power for VoLTE UEs at the
cell edge quickly converges. It is recommended
that this option be selected only in high-speed
railway scenarios.
UlVoLTEDelaySchEnhancedSw: Indicates whether
to enhance delay-based dynamic scheduling
prioritization for VoLTE services in the uplink. If
this option is deselected, the eNodeB does not
enhance delay-based dynamic scheduling
prioritization for VoLTE services in the uplink. If
this option is selected and the UlDelaySchStrategy
parameter in the CellUlschAlgo MO is set to
VOIP_AND_DATA_DELAYSCH(VoIP and Data
Delay Scheduling), the eNodeB enhances delaybased dynamic scheduling prioritization for VoLTE
services in the uplink. This option applies only to
LTE TDD.
GUI Value Range: UlVoipPreAllocationSwitch
(UlVoipPreAllocationSwitch),
UlVoipDelaySchSwitch(UlVoipDelaySchSwitch),
UlVoIPLoadBasedSchSwitch
(UlVoIPLoadBasedSchSwitch),
UlVoipSchOptSwitch(UlVoipSchOptSwitch),
UlVoLTEDataSizeEstSwitch
(UlVoLTEDataSizeEstSwitch),
UlVoipServStateEnhancedSw
(UlVoipServStateEnhancedSw),
UlVoipRblerControlSwitch
(UlVoipRblerControlSwitch),
UlEdgeActiveSchSwitch(UlEdgeActiveSchSwitch),
UlMcsRestraintAfterSpsRelSw
(UlMcsRestraintAfterSpsRelSw),
SpsAndDrxOptSwitch(SpsAndDrxOptSwitch),
UlCallMuteRecoverSwitch
(UlCallMuteRecoverSwitch),
UlVoipCrosslayerOptSwitch
(UlVoipCrosslayerOptSwitch),
UlVoLTEContinuousSchSw
(UlVoLTEContinuousSchSw),
UlMixVoLTEOptSwitch(UlMixVoLTEOptSwitch),
VoLTEPwrOptSwitch(VoLTEPwrOptSwitch),
UlVoLTEDelaySchEnhancedSw
(UlVoLTEDelaySchEnhancedSw)
Unit: None
Actual Value Range: UlVoipPreAllocationSwitch,
UlVoipDelaySchSwitch,
UlVoIPLoadBasedSchSwitch,
UlVoipSchOptSwitch, UlVoLTEDataSizeEstSwitch,
UlVoipServStateEnhancedSw,
UlVoipRblerControlSwitch,
UlEdgeActiveSchSwitch,
UlMcsRestraintAfterSpsRelSw,
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
SpsAndDrxOptSwitch, UlCallMuteRecoverSwitch,
UlVoipCrosslayerOptSwitch,
UlVoLTEContinuousSchSw,
UlMixVoLTEOptSwitch, VoLTEPwrOptSwitch,
UlVoLTEDelaySchEnhancedSw
Default Value: UlVoipPreAllocationSwitch:Off,
UlVoipDelaySchSwitch:Off,
UlVoIPLoadBasedSchSwitch:Off,
UlVoipSchOptSwitch:On,
UlVoLTEDataSizeEstSwitch:Off,
UlVoipServStateEnhancedSw:On,
UlVoipRblerControlSwitch:On,
UlEdgeActiveSchSwitch:Off,
UlMcsRestraintAfterSpsRelSw:Off,
SpsAndDrxOptSwitch:On,
UlCallMuteRecoverSwitch:Off,
UlVoipCrosslayerOptSwitch:Off,
UlVoLTEContinuousSchSw:Off,
UlMixVoLTEOptSwitch:Off,
VoLTEPwrOptSwitch:Off,
UlVoLTEDelaySchEnhancedSw:Off
CellUlschAlgo
DataThdInPdcchPuschBal
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the traffic volume threshold of
a UE above which the UE is determined as a UE
with large packets in the PDCCH and PUSCH
resource allocation optimization mechanism when
traffic is heavy. If this parameter is set to 0, none
of the UEs is determined as a UE with large
packets. If this parameter is set to a value ranging
from 1 to 1000000 (indicating a threshold from 1
bit to 1,000,000 bits), a UE whose traffic to be
scheduled is greater than or equal to this
parameter value is determined as a UE with large
packets. This parameter applies only to LTE FDD
and LTE TDD.
GUI Value Range: 0~1000000
Unit: bit
Actual Value Range: 0~1000000
Default Value: 10000
CellUlschAlgo
UeNumThdInPdcchPuschBal
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the threshold for the number of
synchronized UEs in a cell above which the
PDCCH and PUSCH resource allocation
optimization mechanism is activated in large traffic
volume scenarios. If this parameter is set to a
value ranging from 0 to 10000 (indicating a
threshold from 0 UE to 10,000 UEs), the
mechanism is activated when the number of
synchronized UEs in the cell is greater than or
equal to this parameter value. This parameter
applies only to LTE FDD and LTE TDD.
GUI Value Range: 0~10000
Unit: None
Actual Value Range: 0~10000
Default Value: 10000
CellUlschAlgo
AperiodicCsiUlTxMode
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-060103
Meaning:
Indicates the transmission mode of aperiodic CSI
in the uplink. If this parameter is set to CsiOnly
(CsiOnly) and UEs have only aperiodic downlink
CSI to transmit and do not have uplink service
data to transmit, these UEs can be immediately
scheduled on the PUSCH and only aperiodic
downlink CSIs are transmitted on the PUSCH. If
this parameter is set to CsiWiUlService
(CsiWiUlService) and UEs have only aperiodic
downlink CSI to transmit and do not have uplink
service data to transmit, within a specified period
of time after the aperiodic CSI is triggered, these
UEs cannot be immediately scheduled on the
PUSCH to transmit only aperiodic downlink CSIs,
but the aperiodic downlink CSIs and uplink service
data of these UEs can be simultaneously
transmitted on the PUSCH.
Meanwhile, this parameter also controls the CQI
update policy when the eNodeB receives CQI of 0
from UEs. If this parameter is set to CsiOnly
(CsiOnly), the eNodeB determines that the CQI is
unreliable when receiving CQI of 0 from a UE. If
this parameter is set to CsiWiUlService
(CsiWiUlService), the eNodeB determines that the
CQI is reliable when receiving a CQI of 0 with the
reliable indicator set to reliable. The eNodeB
Enhanced DL
Frequency
Selective
Scheduling
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
updates the time when the reliable CQI is received
but does not use the CQI for scheduling decision.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: CsiOnly(CsiOnly),
CsiWiUlService(CsiWiUlService)
Unit: None
Actual Value Range: CsiOnly, CsiWiUlService
Default Value: CsiOnly(CsiOnly)
CellUlschAlgo
UlSchAbnUeThd
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
TDLBFD-00101502
LBFD-002025 /
TDLBFD-002025
CellUlschAlgo
UlInBasedFssSinrThld
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
LBFD-060102
Enhanced UL
Frequency
Selective
Scheduling
Meaning: Indicates the signal to interference plus
noise ratio (SINR) threshold under which
interference-based frequency selective resource
allocation is enabled in the uplink. This parameter
takes effect only when UlInterfFssSwitch of the
UlSchSwitch parameter is on. This parameter
applies only to LTE FDD networks.
GUI Value Range: -500~500
Unit: 0.1dB
Actual Value Range: -50~50
Default Value: 500
CellUlschAlgo
MaxUlSchRbNum
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-001015
LBFD-002025
Enhanced
Scheduling
Basic
Scheduling
Meaning: Indicates the maximum number of RBs
allocated to each UE in uplink scheduling. This
parameter applies only to LTE FDD. Based on the
descriptions in section 6.6.3.2 in 3GPP TS36.101,
with given system bandwidth and uplink carrier
frequency, changing the value of this parameter
can reduce spurious emission to other frequencies
in the uplink.
GUI Value Range: 1~255
Unit: None
Actual Value Range: 1~255
Default Value: 255
CellUlschAlgo
HeadOverheadForUlSch
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning:
Indicates the head overhead of data in uplink
scheduling.
This parameter value 0bit indicates that the data
does not have head overhead.
The parameter value 32bit indicates that the head
overhead is 32 bits. This parameter can be set to
32bit in scenarios where RLC initial transmission is
performed on a single service and the MAC layer
does not send control units.
The parameter value 48bit indicates that the head
overhead is 48 bits. This parameter can be set to
48bit in scenarios where RLC initial transmission is
performed on a single service and the MAC layer
sends buffer status reports (BSRs) or power
headroom reports (PHRs).
The parameter value 64bit indicates that the head
overhead is 64 bits. This parameter can be set to
64bit in scenarios where RLC initial transmission is
performed on a single service and the MAC layer
sends BSRs and PHRs.
The parameter value 80bit indicates that the head
overhead is 80 bits. This parameter can be set to
80bit in scenarios where RLC retransmission is
performed on a single service and the MAC layer
sends BSRs and PHRs.
The parameter value 96bit indicates that the head
overhead is 96 bits. This parameter can be set to
96bit in scenarios where RLC initial transmission is
performed on multiple services and the MAC layer
sends BSRs or PHRs.
The parameter value 128bit indicates that the head
overhead is 128 bits. This parameter can be set to
128bit in scenarios where RLC initial transmission
Enhanced
Scheduling
Basic
Scheduling
Meaning: Indicates the threshold of consecutive
cyclic redundancy check (CRC) errors in the uplink
above which the eNodeB stops scheduling the
abnormal UE. The parameter value range is from 6
to 120. This parameter applies only to LTE FDD
and LTE TDD.
GUI Value Range: 6~120
Unit: None
Actual Value Range: 6~120
Default Value: 15
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
is performed on multiple services and the MAC
layer sends BSRs and PHRs.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: 0bit, 32bit, 48bit, 64bit, 80bit,
96bit, 128bit
Unit: None
Actual Value Range: 0bit, 32bit, 48bit, 64bit, 80bit,
96bit, 128bit
Default Value: 0bit
CellUlschAlgo
SinrAdjustTargetIbler
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-001006 /
TDLBFD-001006
LOFD-001006 /
TDLOFD-001006
AMC
UL 64QAM
Meaning: Indicates the target IBLER of the SINR
adjustment algorithm. A greater parameter value
indicates a greater SINR adjustment value, and
thus an MCS of a higher index is used. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: 1~99
Unit: None
Actual Value Range: 0.01~0.99, step:0.01
Default Value: 10
CellUlschAlgo
UlTargetIBlerAdaptType
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-001006
AMC
Meaning:
Indicates whether to enable SINR-fluctuation- or
SINR-jump-based target IBLER adaptation.
SinrFlunIBlerAdaptSwitch: Indicates whether to
enable SINR-fluctuation-based target IBLER
adaptation. If the UlIblerAdjustSwitch option of the
UlSchSwitch parameter is selected, SINRfluctuation-based target IBLER adaptation is
enabled only when the SinrFlunIBlerAdaptSwitch
option is selected. This option applies only to LTE
FDD and LTE TDD.
SinrJumpIBlerAdaptSwitch: Indicates whether to
enable SINR-jump-based target IBLER adaptation.
If the UlIblerAdjustSwitch option is selected, SINRjump-based target IBLER adaptation is enabled
only when the SinrJumpIBlerAdaptSwitch option is
selected. This option applies only to LTE FDD.
When the UlIblerAdjustSwitch option of the
UlSchSwitch parameter is deselected, the two
options of the UlIBlerTargetAdaptType parameter
do not take effect.
GUI Value Range: SinrFlunIBlerAdaptSwitch
(SinrFlunIBlerAdaptSwitch),
SinrJumpIBlerAdaptSwitch
(SinrJumpIBlerAdaptSwitch)
Unit: None
Actual Value Range: SinrFlunIBlerAdaptSwitch,
SinrJumpIBlerAdaptSwitch
Default Value: SinrFlunIBlerAdaptSwitch:Off,
SinrJumpIBlerAdaptSwitch:Off
CellUlschAlgo
UlIBlerAdaptBigTrafficSw
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-001006 /
TDLBFD-001006
AMC
Meaning: Indicates whether large-packet service
identification is required in IBLER adaptation. If
this parameter is set to ON(On), large-packet
service identification is required in IBLER
adaptation. If this parameter is set to OFF(Off),
large-packet service identification is not required in
IBLER adaptation. This parameter applies only to
LTE FDD and LTE TDD.
GUI Value Range: OFF(Off), ON(On)
Unit: None
Actual Value Range: OFF, ON
Default Value: ON(On)
Cell
UlCyclicPrefix
ADD CELL
MOD CELL
LST CELL
LBFD-00100401 /
TDLBFD-00100401
LOFD-001031 /
TDLOFD-001031
LBFD-002009 /
TDLBFD-002009 /
MLBFD-12000229
Normal CP
Extended CP
Broadcast of
system
information
Meaning: Indicates the UL cyclic prefix length of a
cell. A cyclic prefix can be a common or extended
cyclic prefix. An extended cyclic prefix is generally
used in a complex environment with a strong multipath effect and long delay. In a cell, the UL cyclic
prefix length can be different from the DL one. In
addition, the UL or DL cyclic prefix length of a cell
must be the same as that of the cell set up on the
same BBP. For details, see 3GPP TS 36.211.
GUI Value Range: NORMAL_CP(Normal),
EXTENDED_CP(Extended)
Unit: None
Actual Value Range: NORMAL_CP,
EXTENDED_CP
Default Value: NORMAL_CP(Normal)
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
CellUlschAlgo
SriFalseDetThdSwitch
MOD CELLULSCHALGO
LST CELLULSCHALGO
None
None
Meaning: Indicates whether to increase the
scheduling request indicator (SRI) false detection
threshold for UEs in the discontinuous reception
(DRX) state. If this parameter is set to ON, the
threshold increases and the SRI false detection
probability decreases. If this parameter is set to
OFF, both the threshold and the probability remain
unchanged. This parameter applies only to LTE
FDD and LTE TDD.
GUI Value Range: OFF(Off), ON(On)
Unit: None
Actual Value Range: OFF, ON
Default Value: OFF(Off)
CellUciOnPuschPara CellUciOnPuschParaValid
MOD
CELLUCIONPUSCHPARA
LST
CELLUCIONPUSCHPARA
None
None
Meaning: Indicates whether parameters except
DeltaOffsetAckIndexForTtiB in the
CellUciOnPuschPara MO take effect. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: FALSE(FALSE), TRUE(TRUE)
Unit: None
Actual Value Range: FALSE, TRUE
Default Value: FALSE(FALSE)
CellUciOnPuschPara DeltaOffsetAckIndex
MOD
CELLUCIONPUSCHPARA
LST
CELLUCIONPUSCHPARA
LEOFD-111306 /
TDLOFD-120205
Breathing
Pilot
Meaning: Indicates the index mapped to the MCS
offset for acknowledgments (ACKs) transmitted
with data on PUSCH. For details, see 3GPP TS
36.213. Some values are reserved, for example,
value 15 is reserved in 3GPP TS 36.213 Release
9. When this parameter is set to a reserved value,
a UE initiates an RRC connection reestablishment
or fails to access the network. This parameter
applies only to UEs that are not in the TTI bundling
state. This parameter applies only to LTE FDD and
LTE TDD.
GUI Value Range: 0~15
Unit: None
Actual Value Range: 0~15
Default Value: 9
CellUciOnPuschPara DeltaOffsetRiIndex
MOD
CELLUCIONPUSCHPARA
LST
CELLUCIONPUSCHPARA
None
None
Meaning: Indicates the index mapped to the MCS
offset for RIs transmitted with data on PUSCH. For
details, see 3GPP TS 36.213. Some values are
reserved, for example, values 13, 14, and 15 are
reserved in 3GPP TS 36.213 Release 9. If this
parameter is set to a reserved value, access
failure or RRC connection reestablishment will
occur. This parameter applies only to LTE FDD
and LTE TDD.
GUI Value Range: 0~15
Unit: None
Actual Value Range: 0~15
Default Value: 5
CellUciOnPuschPara DeltaOffsetCqiIndex
MOD
CELLUCIONPUSCHPARA
LST
CELLUCIONPUSCHPARA
None
None
Meaning: Indicates the index mapped to the MCS
offset for CQIs transmitted with data on PUSCH.
For details, see 3GPP TS 36.213. Some values
are reserved, for example, values 0 and 1 are
reserved in 3GPP TS 36.213 Release 9. If this
parameter is set to a reserved value, access
failure or RRC connection reestablishment will
occur. This parameter applies only to LTE FDD
and LTE TDD.
GUI Value Range: 0~15
Unit: None
Actual Value Range: 0~15
Default Value: 12
DeltaOffsetAckIndex
MOD PUSCHPARAM
LST PUSCHPARAM
None
None
Meaning: Indicates the index mapped to the MCS
offset for acknowledgments (ACKs) transmitted
with data on PUSCH. For details, see 3GPP TS
36.213. Some values are reserved, for example,
value 15 is reserved in 3GPP TS 36.213 Release
9. When this parameter is set to a reserved value,
a UE initiates an RRC connection reestablishment
or fails to access the network. This parameter
applies only to LTE FDD and LTE TDD.
GUI Value Range: 0~15
Unit: None
Actual Value Range: 0~15
Default Value: 9
DeltaOffsetRiIndex
MOD PUSCHPARAM
PuschParam
MO
Parameter ID
PuschParam
MML Command
Feature ID
Feature Name
Description
LST PUSCHPARAM
None
None
Meaning: Indicates the index mapped to the MCS
offset for rank indications (RIs) transmitted with
data on PUSCH. For details, see 3GPP TS
36.213. Some values are reserved, for example,
values 13, 14, and 15 are reserved in 3GPP TS
36.213 Release 9. When this parameter is set to a
reserved value, a UE initiates an RRC connection
reestablishment or fails to access the network.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: 0~15
Unit: None
Actual Value Range: 0~15
Default Value: 5
PuschParam
DeltaOffsetCqiIndex
MOD PUSCHPARAM
LST PUSCHPARAM
None
None
Meaning: Indicates the index mapped to the MCS
offset for channel quality indicators (CQIs)
transmitted with data on PUSCH. For details, see
3GPP TS 36.213. Some values are reserved, for
example, values 0 and 1 are reserved in 3GPP TS
36.213 Release 9. When this parameter is set to a
reserved value, a UE initiates an RRC connection
reestablishment or fails to access the network.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: 0~15
Unit: None
Actual Value Range: 0~15
Default Value: 12
CellRbReserve
RbRsvMode
ADD CELLRBRESERVE
MOD CELLRBRESERVE
LST CELLRBRESERVE
MLBFD-12000103
LTE In-band
Deployment
Meaning: Indicates the purpose for reserving RBs.
The value NB_RESERVED indicates that the
specified RBs are reserved as a guardband in the
uplink or to reduce the interference between LTE
and NB-IoT cells in the downlink. The value
NB_DEPLOYMENT indicates that the specified
RBs are to be used for deploying NB-IoT. The
value RB_MASKING indicates that the specified
RBs are to be used for manual RB masking. The
value RB_MASKING_WITH_SRS indicates that
the specified RBs are to be used for manual RB
and SRS masking. This parameter applies only to
LTE FDD and NB-IoT.
GUI Value Range: NB_RESERVED
(NB_RESERVED), NB_DEPLOYMENT
(NB_DEPLOYMENT), RB_MASKING
(RB_MASKING), RB_MASKING_WITH_SRS
(RB_MASKING_WITH_SRS)
Unit: None
Actual Value Range: NB_RESERVED,
NB_DEPLOYMENT, RB_MASKING,
RB_MASKING_WITH_SRS
Default Value: None
QciPara
UlMinGbr
ADD QCIPARA
MOD QCIPARA
LST QCIPARA
LBFD-00101502 /
TDLBFD-00101502
LOFD-00301101 /
TDLOFD-00301101
LOFD-00301102 /
TDLOFD-00301102
LOFD-00301103
LBFD-002025 /
TDLBFD-002025
LBFD-001015 /
TDLBFD-001015
Dynamic
Scheduling
Transport
Overbooking
Transport
Differentiated
Flow Control
Transport
Resource
Overload
Control
Basic
Scheduling
Enhanced
Scheduling
Meaning: Indicates the uplink minimum
guaranteed bit rate of the service. This parameter
applies only to LTE FDD and LTE TDD.
GUI Value Range: MinGbrRate_0_KB(0kB/s),
MinGbrRate_1_KB(1kB/s), MinGbrRate_2_KB
(2kB/s), MinGbrRate_4_KB(4kB/s),
MinGbrRate_8_KB(8kB/s), MinGbrRate_16_KB
(16kB/s), MinGbrRate_32_KB(32kB/s),
MinGbrRate_64_KB(64kB/s),
MinGbrRate_128_KB(128kB/s),
MinGbrRate_256_KB(256kB/s),
MinGbrRate_512_KB(512kB/s)
Unit: kB/s
Actual Value Range: MinGbrRate_0_KB,
MinGbrRate_1_KB, MinGbrRate_2_KB,
MinGbrRate_4_KB, MinGbrRate_8_KB,
MinGbrRate_16_KB, MinGbrRate_32_KB,
MinGbrRate_64_KB, MinGbrRate_128_KB,
MinGbrRate_256_KB, MinGbrRate_512_KB
Default Value: MinGbrRate_1_KB(1kB/s)
QciPara
PrioritisedBitRate
ADD QCIPARA
MOD QCIPARA
LST QCIPARA
LBFD-00101502 /
TDLBFD-00101502
TDLBFD-002025
TDLBFD-001015
Dynamic
Scheduling
Basic
Scheduling
Enhanced
Scheduling
Meaning: Indicates the prioritized bit rate of the
logical channel. The UE scheduler guarantees
prioritized bit rates of logical channels in
descending order of logical channel priority. For
details, see 3GPP TS 36.321. This parameter
applies only to LTE FDD and LTE TDD.
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
GUI Value Range: PBR_0_KBps(0kB/s),
PBR_8_KBps(8kB/s), PBR_16_KBps(16kB/s),
PBR_32_KBps(32kB/s), PBR_64_KBps(64kB/s),
PBR_128_KBps(128kB/s), PBR_256_KBps
(256kB/s), PBR_INFINITY(Infinity)
Unit: kB/s
Actual Value Range: PBR_0_KBps, PBR_8_KBps,
PBR_16_KBps, PBR_32_KBps, PBR_64_KBps,
PBR_128_KBps, PBR_256_KBps, PBR_INFINITY
Default Value: PBR_8_KBps(8kB/s)
QciPara
LogicalChannelPriority
ADD QCIPARA
MOD QCIPARA
LST QCIPARA
LBFD-00101502 /
TDLBFD-00101502
LBFD-002025 /
TDLBFD-002025
LBFD-001015 /
TDLBFD-001015
Dynamic
Scheduling
Basic
Scheduling
Enhanced
Scheduling
Meaning: Indicates the priority of the logical
channel. The UE scheduler guarantees prioritized
bit rates of logical channels in descending order of
logical channel priority. Resources are allocated in
descending order of logical channel priority after
the prioritized bit rates of all services are
guaranteed. For details, see 3GPP TS 36.321.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: 4~16
Unit: None
Actual Value Range: 4~16
Default Value: 11
GlobalProcSwitch
LcgProfile
MOD
GLOBALPROCSWITCH
LST
GLOBALPROCSWITCH
LBFD-002025 /
TDLBFD-002025
LBFD-00101502 /
TDLBFD-00101502
LOFD-081218
TDLOFD-110230
Basic
Scheduling
Dynamic
Scheduling
Enhanced
Extended QCI
Enhanced
QoS for
MCPTT (Trial)
Meaning:
Indicates the logical channel group configuration.
Currently, three logical channel group profiles are
available.
If this parameter is set to LCG_PROFILE_0,
logical channel groups are as follows:
- The control-plane services (SRB 1, SRB 2, QCI 5
bearers, and QCI 69 bearers) and QCI 65 bearers
are assigned logical channel group 0.
- VoLTE services (QCI 1 bearers) and QCI 66
bearers are assigned logical channel group 1.
- Other GBR services (QCIs 2 to 4 bearers) are
assigned logical channel group 2.
- Non-GBR services are assigned logical channel
group 3.
If this parameter is set to LCG_PROFILE_1,
logical channel groups are as follows:
- Control-plane services, PTT voice services (QCIs
65 and 66 bearers), and VoLTE services (QCI 1
bearers) are assigned logical channel group 0.
- Other GBR services are assigned logical channel
group 1.
- High-priority non-GBR services are assigned
logical channel group 2.
- Low-priority non-GBR services are assigned
logical channel group 3.
If this parameter is set to LCG_PROFILE_2,
logical channel groups are as follows:
- The control-plane services and QCI 65 bearers
are assigned logical channel group 0.
- VoLTE services, QCI 66 services, and other GBR
services (QCIs 2 to 4 bearers) are assigned logical
channel group 1.
- High-priority non-GBR services are assigned
logical channel group 2.
- Low-priority non-GBR services are assigned
logical channel group 3.
Therefore, if this parameter is set to
LCG_PROFILE_2, VoLTE services must be
carried by QCI 1 bearers, PTT services must be
carried by QCI 65 and 66 bearers, and it is
recommended that QCIs 2 to 4 bearers not be
used.
LTE TDD does not support LCG_PROFILE_2.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: LCG_PROFILE_0,
LCG_PROFILE_1, LCG_PROFILE_2
Unit: None
Actual Value Range: LCG_PROFILE_0,
LCG_PROFILE_1, LCG_PROFILE_2
Default Value: LCG_PROFILE_0
CellUlschAlgo
UlschStrategy
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-002025 /
TDLBFD-002025
Basic
Scheduling
Meaning: Indicates the UL scheduling policy,
which determines the scheduling priority order in
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
TDLBFD-001015
Dynamic
Scheduling
LBFD-00101502 /
TDLBFD-00101502 Enhanced
Scheduling
which UEs are arranged in UL. There are four UL
scheduling strategies: MAX C/I, proportional fair
(PF), round Robin (RR), and enhanced
proportional fair (EPF). The MAX C/I policy
schedules UEs in descending order of average
signal to interference plus noise ratio (SINR). The
PF policy schedules UEs in ascending order of
ratio of the data rate to the average SINR. The RR
policy schedules each UE in sequence, and
therefore each UE has an equal opportunity to be
scheduled. The EPF policy schedules UEs in
ascending order of priority. In EPF, the priority of
an UE is calculated based on the following factors:
the data rate, average SINR, QoS-satisfying data
rate for each service, and service differentiation
requirements of the UE. The MAX C/I, PF, and RR
policies are basic UL scheduling policies and
supported by the eNodeB by default, whereas the
EPF policy is intended for commercial use. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: ULSCH_STRATEGY_EPF
(EPF), ULSCH_STRATEGY_MAX_CI(MAX_CI),
ULSCH_STRATEGY_PF(PF),
ULSCH_STRATEGY_RR(RR)
Unit: None
Actual Value Range: ULSCH_STRATEGY_EPF,
ULSCH_STRATEGY_MAX_CI,
ULSCH_STRATEGY_PF,
ULSCH_STRATEGY_RR
Default Value: ULSCH_STRATEGY_EPF(EPF)
Meaning: Indicates the duration of uplink smart
preallocation triggered by downlink scheduling. If
SmartPreAllocationSwitch is set to On and this
parameter is set to 0, neither smart preallocation
nor preallocation takes effect. If
SmartPreAllocationSwitch is set to Off, this
parameter is invalid. This parameter applies only
to LTE FDD and LTE TDD.
GUI Value Range: 0~2000
Unit: ms
Actual Value Range: 0~2000
Default Value: 50
CellUlschAlgo
SmartPreAllocationDuration
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
TDLBFD-00101502
LBFD-001015 /
TDLBFD-001015
CellUlschAlgo
SmartPreAllocDuraForSparse
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the smart preallocation
duration for sparse packets. The larger value
between this parameter and the
SmartPreAllocationDuration parameter is selected
as the actual smart preallocation duration for
sparse packets. This parameter applies only to
LTE FDD and LTE TDD.
GUI Value Range: 0~2000
Unit: ms
Actual Value Range: 0~2000
Default Value: 1500
DrxParaGroup
DrxInactivityTimer
ADD DRXPARAGROUP
MOD DRXPARAGROUP
LST DRXPARAGROUP
LBFD-002017 /
TDLBFD-002017
LEOFD-111306
LOFD-00110501
LTROFD-111203 /
TDLOFD-121105
MLOFD-121280 /
TDLEOFD-121611
Meaning: Indicates the length of the DRX inactivity
timer. This parameter applies only to LTE FDD and
LTE TDD.
GUI Value Range: PSF1(1 PDCCH subframe),
PSF2(2 PDCCH subframes), PSF3(3 PDCCH
subframes), PSF4(4 PDCCH subframes), PSF5(5
PDCCH subframes), PSF6(6 PDCCH subframes),
PSF8(8 PDCCH subframes), PSF10(10 PDCCH
subframes), PSF20(20 PDCCH subframes),
PSF30(30 PDCCH subframes), PSF40(40 PDCCH
subframes), PSF50(50 PDCCH subframes),
PSF60(60 PDCCH subframes), PSF80(80 PDCCH
subframes), PSF100(100 PDCCH subframes),
PSF200(200 PDCCH subframes), PSF300(300
PDCCH subframes), PSF500(500 PDCCH
subframes), PSF750(750 PDCCH subframes),
PSF1280(1280 PDCCH subframes), PSF1920
(1920 PDCCH subframes), PSF2560(2560
PDCCH subframes)
Unit: subframe
Actual Value Range: PSF1, PSF2, PSF3, PSF4,
PSF5, PSF6, PSF8, PSF10, PSF20, PSF30,
PSF40, PSF50, PSF60, PSF80, PSF100, PSF200,
PSF300, PSF500, PSF750, PSF1280, PSF1920,
PSF2560
Default Value: PSF80(80 PDCCH subframes)
Dynamic
Scheduling
Enhanced
Scheduling
DRX
Breathing
Pilot
Dynamic DRX
RRC and
DRX Policy
for Public
Safety
eMTC
Introduction
MO
Parameter ID
MML Command
Feature ID
CellUlschAlgo
PreAllocationBandwidthRatio
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Feature Name
Meaning: Indicates the ratio of the maximum
bandwidth resources that the uplink scheduler can
allocate to preallocation UEs to the total system
bandwidth. This parameter applies only to LTE
FDD and LTE TDD.
GUI Value Range: 0~100
Unit: %
Actual Value Range: 0~100
Default Value: 25
CellUlschAlgo
PreAllocationSize
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the data amount pre-allocated
to each user. This parameter applies only to LTE
FDD and LTE TDD.
GUI Value Range: 45~1500
Unit: byte
Actual Value Range: 45~1500
Default Value: 80
CellUlschAlgo
PreallocationSizeForSparse
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the data amount preallocated
to each UE with sparse packets. When this
parameter is set to SAME_AS_OTHER_SERVICE,
the PreAllocationSize parameter value is
applicable to UEs with sparse packets. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: SAME_AS_OTHER_SERVICE
(SAME_AS_OTHER_SERVICE), 80BYTE
(80BYTE), 160BYTE(160BYTE), 320BYTE
(320BYTE), 640BYTE(640BYTE), 1280BYTE
(1280BYTE), 2560BYTE(2560BYTE)
Unit: None
Actual Value Range:
SAME_AS_OTHER_SERVICE, 80BYTE,
160BYTE, 320BYTE, 640BYTE, 1280BYTE,
2560BYTE
Default Value: SAME_AS_OTHER_SERVICE
(SAME_AS_OTHER_SERVICE)
CellUlschAlgo
PreAllocationMinPeriod
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the minimum interval between
two pre-allocations. That is, the actual interval
between two pre-allocations of one UE must be
longer than or equal to the value of this parameter.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: 1~40
Unit: ms
Actual Value Range: 1~40
Default Value: 5
CellUlschAlgo
PreAllocMinPeriodForSparse
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the minimum interval between
two preallocations for a UE with sparse packets.
This is, the interval between two times that a UE
with sparse packets is preallocated cannot be less
than this parameter value. This parameter applies
only to LTE FDD and LTE TDD.
GUI Value Range: SAME_AS_OTHER_SERVICE
(SAME_AS_OTHER_SERVICE), 1ms(1ms), 2ms
(2ms), 3ms(3ms), 4ms(4ms), 5ms(5ms)
Unit: None
Actual Value Range:
SAME_AS_OTHER_SERVICE, 1ms, 2ms, 3ms,
4ms, 5ms
Default Value: SAME_AS_OTHER_SERVICE
(SAME_AS_OTHER_SERVICE)
QciPara
PreAllocationWeight
ADD QCIPARA
MOD QCIPARA
LST QCIPARA
LBFD-001015 /
TDLBFD-001015
LBFD-00101502 /
TDLBFD-00101502
Meaning: Indicates the pre-allocation weight. The
pre-allocation weight of a UE is the pre-allocation
weight of services carried by the highest-priority
logical channel. If services carried by highestpriority logical channels have different preallocation weights, the UE takes the highest preallocation weight. When resources are insufficient,
pre-allocation weights affect the pre-allocation
probabilities of users. The pre-allocation probability
has a positive correlation with the pre-allocation
weight. This parameter applies only to LTE FDD
and LTE TDD.
GUI Value Range: 0~10
Unit: None
Actual Value Range: 0~1, step:0.1
Default Value: 10
UlHoppingType
MOD CELLULSCHALGO
Enhanced
Scheduling
Dynamic
Scheduling
Description
MO
Parameter ID
CellUlschAlgo
MML Command
Feature ID
Feature Name
Description
LST CELLULSCHALGO
LBFD-002025 /
TDLBFD-002025
LBFD-001015 /
TDLBFD-001015
Basic
Scheduling
Enhanced
Scheduling
Meaning:
Indicates whether frequency hopping (FH) is
enabled or disabled and which FH type is used.
Hopping_OFF: indicates that FH is disabled.
Hopping_Type1: indicates that adaptive FH is
enabled and FH type 1 is used. In this scenario,
UEs in the cell can determine whether to use FH
based on the actual situation.
Hopping_Type2: indicates that adaptive FH is
enabled and FH type 2 is used. In this scenario,
UEs in the cell can determine whether to use FH
based on the actual situation.
Hopping_Type2_RANDOM: indicates that
interference-randomization-based FH is enabled
and FH type 2 is used. In this scenario, all UEs in
the cell use FH. This parameter applies only to
LTE FDD and LTE TDD.
GUI Value Range: HOPPING_OFF(Hopping off),
HOPPING_TYPE1(Hopping Type 1),
HOPPING_TYPE2(Hopping Type 2),
HOPPING_TYPE2_RANDOM(Hopping Type 2
Random)
Unit: None
Actual Value Range: HOPPING_OFF,
HOPPING_TYPE1, HOPPING_TYPE2,
HOPPING_TYPE2_RANDOM
Default Value: HOPPING_OFF(Hopping off)
RlcPdcpParaGroup
RlcParaAdaptSwitch
ADD
RLCPDCPPARAGROUP
MOD
RLCPDCPPARAGROUP
LST
RLCPDCPPARAGROUP
LBFD-002008 /
TDLBFD-002008
Radio Bearer
Management
Meaning:
Indicates whether to enable adaptive configuration
of parameters related to Radio Link Control (RLC).
If this parameter is set to ON(On), the eNodeB
adaptively configures the lengths of the following
timers according to the number of UEs in the cell
when new UEs access the cell:
(1) The polling PDU retransmission timer for the
UE
(2) The polling PDU retransmission timer for the
eNodeB
(3) The UE-specific timer for prohibiting status
reporting from the receiver
(4) The eNodeB-specific timer for prohibiting status
reporting from the receiver
If the SMALL_BAND_RLC_OPT_SWITCH option
of the SmallBandOptSwitch parameter is selected,
for a small-bandwidth cell (cell with a bandwidth of
5 MHz, 3 MHz, or 1.4 MHz), this adaptive
configuration function is enabled regardless of the
RlcParaAdaptSwitch parameter setting. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: OFF(Off), ON(On)
Unit: None
Actual Value Range: OFF, ON
Default Value: ON(On)
RrcConnStateTimer
UeInactiveTimer
MOD
RRCCONNSTATETIMER
LST
RRCCONNSTATETIMER
LBFD-002007 /
TDLBFD-002007
RRC
Connection
Management
Meaning: Indicates the length of the UE Inactivity
Timer for UEs that do not have QCI-1 services. If
the eNodeB detects that such a UE has neither
received nor sent data for a period exceeding the
value of this parameter, the eNodeB releases the
RRC connection for the UE. If this parameter is set
to 0, the UE Inactivity Timer is not used. This
parameter takes effect only for such UEs that will
access the network after the parameter is set. If
the QciParaEffectFlag parameter in the
GlobalProcSwitch MO is set to ON(On), the
UeInactiveTimerForQci parameter in the QciPara
MO, rather than this parameter takes effect. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: 0~3600
Unit: s
Actual Value Range: 0~3600
Default Value: 20
CellDlschAlgo
DlEpfCapacityFactor
MOD CELLDLSCHALGO
LST CELLDLSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the capacity factor for downlink
enhanced proportional fair (EPF) scheduling. This
factor affects the scheduling priorities of UEs
running services with the QCI of 6, 7, 8, or 9, and
accordingly can be used to adjust the cell capacity
and fairness among users. This parameter applies
only to LTE FDD and LTE TDD.
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
GUI Value Range: EPF_CAPC_FACTOR_1(1),
EPF_CAPC_FACTOR_0DOT01(0.01),
EPF_CAPC_FACTOR_0DOT5(0.5),
EPF_CAPC_FACTOR_2(2),
EPF_CAPC_FACTOR_3(3),
EPF_CAPC_FACTOR_4(4)
Unit: None
Actual Value Range: EPF_CAPC_FACTOR_1,
EPF_CAPC_FACTOR_0DOT01,
EPF_CAPC_FACTOR_0DOT5,
EPF_CAPC_FACTOR_2,
EPF_CAPC_FACTOR_3,
EPF_CAPC_FACTOR_4
Default Value: EPF_CAPC_FACTOR_1(1)
QciPara
Qci
ADD QCIPARA
LST QCIPARA
MOD QCIPARA
RMV QCIPARA
LBFD-00101502 /
TDLBFD-00101502
LBFD-002025 /
TDLBFD-002025
LBFD-001015 /
TDLBFD-001015
MLBFD-12100205
Dynamic
Scheduling
Basic
Scheduling
Enhanced
Scheduling
Data over
User Plane
Meaning: Indicates the QCI, which is an attribute
of EPS bearers. Different QCIs represent different
QoS specifications such as the packet delay
budget, packet loss rate (PLR) and packet error
rate (PER), and resource type (whether the service
is a GBR service or not). For details, see Table
6.1.7 in 3GPP TS 23.203.
GUI Value Range:
1,2,3,4,5,6,7,8,9,10~64,65,66,67~68,69,70,71~254
Unit: None
Actual Value Range:
1,2,3,4,5,6,7,8,9,10~64,65,66,67~68,69,70,71~254
Default Value: None
GlobalProcSwitch
QciParaEffectFlag
MOD
GLOBALPROCSWITCH
LST
GLOBALPROCSWITCH
LBFD-002008
TDLBFD-002017
LBFD-002018 /
TDLBFD-002018
TDLBFD-00201801
LBFD-00201802 /
TDLBFD-00201802
LBFD-00201805 /
TDLBFD-00201805
LOFD-00301101 /
TDLOFD-00301101
LOFD-00301102 /
TDLOFD-00301102
LOFD-00301103 /
TDLOFD-00301103
Radio Bearer
Management
DRX
Mobility
Management
Coverage
Based Intrafrequency
Handover
Coverage
Based Interfrequency
Handover
Service Based
Interfrequency
Handover
Transport
Overbooking
Transport
Differentiated
Flow Control
Transport
Resource
Overload
Control
Meaning: Indicates whether parameters in
QciPara, CellQciPara, and CnOperatorQciPara
MOs take effect. The parameters take effect by
default. If this parameter is set to OFF, parameters
in StandardQci, ExtendedQci, CellStandardQci,
CellExtendedQci, CnOperatorStandardQci, and
CnOperatorExtendedQci MOs take effect and
parameters in QciPara, CellQciPara, and
CnOperatorQciPara MOs do not take effect. If this
parameter is set to ON, parameters in QciPara,
CellQciPara, and CnOperatorQciPara MOs take
effect and parameters in StandardQci,
ExtendedQci, CellStandardQci, CellExtendedQci,
CnOperatorStandardQci, and
CnOperatorExtendedQci MOs do not take effect.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: OFF(Off), ON(On)
Unit: None
Actual Value Range: OFF, ON
Default Value: ON(On)
CellAlgoSwitch
LocalCellId
DSP
CELLULCAMCCLUSTER
DSP CELLULICSSTATUS
LST CELLALGOSWITCH
MOD CELLALGOSWITCH
None
None
Meaning: Indicates the local ID of the cell. It
uniquely identifies a cell within an eNodeB.
GUI Value Range: 0~255
Unit: None
Actual Value Range: 0~255
Default Value: None
SRSCfg
FddSrsCfgMode
MOD SRSCFG
LST SRSCFG
LBFD-002003
LEOFD-111305
Physical
Channel
Management
Virtual 4T4R
Meaning: Indicates the allocation mode of
sounding reference signal (SRS) resources in LTE
FDD. This parameter must be set when the
SrsCfgInd parameter is set to BOOLEAN_TRUE
(True). If the FddSrsCfgMode parameter is set to
DEFAULTMODE(Default Mode), SRS resource
allocation is activated by default after a cell is
established, and SRS resources are allocated to
UEs that access the cell. If this parameter is set to
ADAPTIVEMODE(Adaptive Mode), SRS resource
allocation can be adaptively activated or
deactivated based on the cell load. After this
parameter is set to ADAPTIVEMODE(Adaptive
Mode), settings of parameters SrsAlgoSwitch,
SrsSubframeCfg, and UserSrsPeriod do not take
effect. The parameter value ADAPTIVEMODE
(Adaptive Mode) is recommended in heavy-traffic
scenarios where there is a large number of UEs in
the cell. The parameter value ADAPTIVEMODE
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
(Adaptive Mode) does not apply to cells
established on an LBBPc. This parameter applies
only to LTE FDD.
GUI Value Range: DEFAULTMODE(Default
Mode), ADAPTIVEMODE(Adaptive Mode)
Unit: None
Actual Value Range: DEFAULTMODE,
ADAPTIVEMODE
Default Value: ADAPTIVEMODE(Adaptive Mode)
CellUlschAlgo
UlRbAllocationStrategy
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
LBFD-060102
Enhanced UL
Frequency
Selective
Scheduling
Meaning: Indicates the strategy for allocating
resource blocks (RBs) in the uplink of the cell. If
this parameter is set to FS_NONFS_ADAPTIVE,
this strategy adaptively switches between
frequency selective scheduling and non-frequency
selective scheduling. If this parameter is set to
FS_INRANDOM_ADAPTIVE, this strategy
adaptively switches between frequency selective
scheduling and interference-randomization-based
scheduling. This parameter applies only to LTE
FDD and LTE TDD.
GUI Value Range: FS_NONFS_ADAPTIVE(Fs
nonFs Strategy), FS_INRANDOM_ADAPTIVE(Fs
InRandom Strategy)
Unit: None
Actual Value Range: FS_NONFS_ADAPTIVE,
FS_INRANDOM_ADAPTIVE
Default Value: FS_INRANDOM_ADAPTIVE(Fs
InRandom Strategy)
CellUlschAlgo
UlEpfCapacityFactor
MOD CELLULSCHALGO
LST CELLULSCHALGO
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the capacity factor for uplink
enhanced proportional fair (EPF) scheduling.
When the eNodeB schedules UEs with unsatisfied
GBR, this factor affects the scheduling priorities of
UEs running services with the QCI of 1, 2, 3, or 4.
When the eNodeB schedules UEs running NonGBR services, this factor affects the scheduling
priorities of UEs running services with the QCI of
6, 7, 8, or 9. In this way, this factor can be used to
adjust the cell capacity and fairness among UEs.
This parameter applies only to LTE FDD and LTE
TDD.
GUI Value Range: EPF_CAPC_FACTOR_1(1),
EPF_CAPC_FACTOR_0DOT01(0.01),
EPF_CAPC_FACTOR_0DOT5(0.5),
EPF_CAPC_FACTOR_2(2),
EPF_CAPC_FACTOR_3(3),
EPF_CAPC_FACTOR_4(4)
Unit: None
Actual Value Range: EPF_CAPC_FACTOR_1,
EPF_CAPC_FACTOR_0DOT01,
EPF_CAPC_FACTOR_0DOT5,
EPF_CAPC_FACTOR_2,
EPF_CAPC_FACTOR_3,
EPF_CAPC_FACTOR_4
Default Value: EPF_CAPC_FACTOR_1(1)
CellQciPara
Qci
ADD CELLQCIPARA
LST CELLQCIPARA
MOD CELLQCIPARA
RMV CELLQCIPARA
LBFD-002025 /
TDLBFD-002025
LBFD-00101502 /
TDLBFD-00101502
Basic
Scheduling
Dynamic
Scheduling
Meaning: Indicates the QoS class identifier (QCI),
which is an attribute of evolved packet system
(EPS) bearers. Different QCIs indicate different
QoS requirements, such as the packet delay
budget, packet loss rate (PLR) and packet error
rate (PER), and resource type (whether the service
is a GBR service or not). For details, see Table
6.1.7 in 3GPP TS 23.203. This parameter applies
only to LTE FDD and LTE TDD.
GUI Value Range:
1,2,3,4,5,6,7,8,9,10~64,65,66,67~68,69,70,71~254
Unit: None
Actual Value Range:
1,2,3,4,5,6,7,8,9,10~64,65,66,67~68,69,70,71~254
Default Value: None
CellQciPara
PreallocationParaGroupId
ADD CELLQCIPARA
MOD CELLQCIPARA
LST CELLQCIPARA
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the ID of the parameter group
related to preallocations. The value 255 indicates
an invalid preallocation parameter group. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: 0~9,255
Unit: None
Actual Value Range: 0~9,255
Default Value: 255
MO
Parameter ID
MML Command
Feature ID
Feature Name
Description
CellPreallocGroup
PreallocationParaGroupId
ADD
CELLPREALLOCGROUP
LST
CELLPREALLOCGROUP
MOD
CELLPREALLOCGROUP
RMV
CELLPREALLOCGROUP
None
None
Meaning: Indicates the ID of the parameter group
related to preallocations. This parameter applies
only to LTE FDD and LTE TDD.
GUI Value Range: 0~9
Unit: None
Actual Value Range: 0~9
Default Value: None
CellPreallocGroup
PreallocationSwitch
ADD
CELLPREALLOCGROUP
MOD
CELLPREALLOCGROUP
LST
CELLPREALLOCGROUP
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates whether to enable or disable
preallocation for a bearer with a specified
preallocation parameter group ID. If this parameter
is set to ON(On), preallocation is enabled for this
bearer. If this parameter is set to OFF(Off),
preallocation is disabled for this bearer. This
switch is a bearer-level switch and takes effect
when the cell-level switch PreAllocationSwitch in
the CellAlgoSwitch MO is turned on. This
parameter applies only to LTE FDD and LTE TDD.
GUI Value Range: OFF(Off), ON(On)
Unit: None
Actual Value Range: OFF, ON
Default Value: ON(On)
CellPreallocGroup
SmartPreallocationSwitch
ADD
CELLPREALLOCGROUP
MOD
CELLPREALLOCGROUP
LST
CELLPREALLOCGROUP
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates whether smart preallocation is
enabled or disabled for a bearer with a specified
preallocation parameter group ID when
PreAllocationSwitch is turned on. If both
PreAllocationSwitch and SmartPreAllocationSwitch
are turned on, and SmartPreAllocationDuration is
set to a value greater than 0, uplink smart
preallocation is enabled; otherwise, uplink smart
preallocation is disabled. This switch is a bearerlevel switch and takes effect when the cell-level
switch PreAllocationSwitch in the CellAlgoSwitch
MO is turned on. This parameter applies only to
LTE FDD and LTE TDD.
GUI Value Range: OFF(Off), ON(On)
Unit: None
Actual Value Range: OFF, ON
Default Value: OFF(Off)
CellPreallocGroup
PreallocationMinPeriod
ADD
CELLPREALLOCGROUP
MOD
CELLPREALLOCGROUP
LST
CELLPREALLOCGROUP
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the minimum interval between
two preallocations, that is, the interval between two
times that a UE is preallocated must be greater
than or equal to this parameter value. When the
DRX algorithm switch is on and the UE is in DRX
mode, the actual value of this parameter cannot be
greater than the DrxInactivityTimer parameter
value. This parameter applies only to LTE FDD
and LTE TDD.
GUI Value Range: 1~40
Unit: ms
Actual Value Range: 1~40
Default Value: 5
CellPreallocGroup
PreallocationSize
ADD
CELLPREALLOCGROUP
MOD
CELLPREALLOCGROUP
LST
CELLPREALLOCGROUP
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the data amount preallocated
to each UE. This parameter applies only to LTE
FDD and LTE TDD.
GUI Value Range: 45~1500
Unit: byte
Actual Value Range: 45~1500
Default Value: 80
CellPreallocGroup
SmartPreallocationDuration
ADD
CELLPREALLOCGROUP
MOD
CELLPREALLOCGROUP
LST
CELLPREALLOCGROUP
LBFD-00101502 /
Dynamic
TDLBFD-00101502 Scheduling
Meaning: Indicates the duration of each smart
preallocation. This parameter applies only to LTE
FDD and LTE TDD.
GUI Value Range: 0~2000
Unit: ms
Actual Value Range: 0~2000
Default Value: 0
14
Counters
Table 14-1 Counters
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
1526726737
L.ChMeas.PRB.UL.Used.Avg
Average number of used uplink
PRBs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-070205
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
1526726740
L.ChMeas.PRB.DL.Used.Avg
Average number of used PDSCH
PRBs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-070205
LEOFD-111305
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
Virtual 4T4R
1526726776
L.Thrp.bits.UL.QCI.1
Uplink traffic volume for PDCP
PDUs of services with the QCI of 1
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726777
L.Thrp.Time.UL.QCI.1
Receive duration of uplink PDCP
PDUs for services with the QCI of 1
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726779
L.Thrp.bits.UL.QCI.2
Uplink traffic volume for PDCP
PDUs of services with the QCI of 2
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726780
L.Thrp.Time.UL.QCI.2
Receive duration of uplink PDCP
PDUs for services with the QCI of 2
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726782
L.Thrp.bits.UL.QCI.3
Uplink traffic volume for PDCP
PDUs of services with the QCI of 3
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726783
L.Thrp.Time.UL.QCI.3
Receive duration of uplink PDCP
PDUs for services with the QCI of 3
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726785
L.Thrp.bits.UL.QCI.4
Uplink traffic volume for PDCP
PDUs of services with the QCI of 4
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726786
L.Thrp.Time.UL.QCI.4
Receive duration of uplink PDCP
PDUs for services with the QCI of 4
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526726788
L.Thrp.bits.UL.QCI.5
Uplink traffic volume for PDCP
PDUs of services with the QCI of 5
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726789
L.Thrp.Time.UL.QCI.5
Receive duration of uplink PDCP
PDUs for services with the QCI of 5
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726791
L.Thrp.bits.UL.QCI.6
Uplink traffic volume for PDCP
PDUs of services with the QCI of 6
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726792
L.Thrp.Time.UL.QCI.6
Receive duration of uplink PDCP
PDUs for services with the QCI of 6
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726794
L.Thrp.bits.UL.QCI.7
Uplink traffic volume for PDCP
PDUs of services with the QCI of 7
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726795
L.Thrp.Time.UL.QCI.7
Receive duration of uplink PDCP
PDUs for services with the QCI of 7
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726797
L.Thrp.bits.UL.QCI.8
Uplink traffic volume for PDCP
PDUs of services with the QCI of 8
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726798
L.Thrp.Time.UL.QCI.8
Receive duration of uplink PDCP
PDUs for services with the QCI of 8
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726800
L.Thrp.bits.UL.QCI.9
Uplink traffic volume for PDCP
PDUs of services with the QCI of 9
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726801
L.Thrp.Time.UL.QCI.9
Multi-mode: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Receive duration of uplink PDCP
PDUs for services with the QCI of 9
in a cell
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726803
L.Thrp.bits.DL.QCI.1
Downlink traffic volume for PDCP
SDUs of services with the QCI of 1
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726804
L.Thrp.Time.DL.QCI.1
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 1 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726806
L.Thrp.bits.DL.QCI.2
Downlink traffic volume for PDCP
SDUs of services with the QCI of 2
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726807
L.Thrp.Time.DL.QCI.2
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 2 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726809
L.Thrp.bits.DL.QCI.3
Downlink traffic volume for PDCP
SDUs of services with the QCI of 3
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726810
L.Thrp.Time.DL.QCI.3
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 3 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726812
L.Thrp.bits.DL.QCI.4
Downlink traffic volume for PDCP
SDUs of services with the QCI of 4
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726813
L.Thrp.Time.DL.QCI.4
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 4 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726815
L.Thrp.bits.DL.QCI.5
Downlink traffic volume for PDCP
SDUs of services with the QCI of 5
in a cell
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526726816
L.Thrp.Time.DL.QCI.5
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 5 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726818
L.Thrp.bits.DL.QCI.6
Downlink traffic volume for PDCP
SDUs of services with the QCI of 6
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726819
L.Thrp.Time.DL.QCI.6
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 6 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726821
L.Thrp.bits.DL.QCI.7
Downlink traffic volume for PDCP
SDUs of services with the QCI of 7
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726822
L.Thrp.Time.DL.QCI.7
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 7 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726824
L.Thrp.bits.DL.QCI.8
Downlink traffic volume for PDCP
SDUs of services with the QCI of 8
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726825
L.Thrp.Time.DL.QCI.8
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 8 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726827
L.Thrp.bits.DL.QCI.9
Downlink traffic volume for PDCP
SDUs of services with the QCI of 9
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726828
L.Thrp.Time.DL.QCI.9
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 9 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726833
L.PDCP.Tx.Disc.Trf.SDU.QCI.1
Multi-mode: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 1 in a cell
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726839
L.PDCP.Tx.Disc.Trf.SDU.QCI.2
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 2 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726845
L.PDCP.Tx.Disc.Trf.SDU.QCI.3
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 3 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726851
L.PDCP.Tx.Disc.Trf.SDU.QCI.4
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 4 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726857
L.PDCP.Tx.Disc.Trf.SDU.QCI.5
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 5 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726863
L.PDCP.Tx.Disc.Trf.SDU.QCI.6
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 6 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726869
L.PDCP.Tx.Disc.Trf.SDU.QCI.7
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 7 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726875
L.PDCP.Tx.Disc.Trf.SDU.QCI.8
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 8 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526726881
L.PDCP.Tx.Disc.Trf.SDU.QCI.9
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 9 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727045
L.Thrp.bits.UL.QCI.1.Max
Maximum uplink traffic volume for
PDCP PDUs of services with the
QCI of 1 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526727046
L.Thrp.bits.UL.QCI.2.Max
Maximum uplink traffic volume for
PDCP PDUs of services with the
QCI of 2 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727047
L.Thrp.bits.UL.QCI.3.Max
Maximum uplink traffic volume for
PDCP PDUs of services with the
QCI of 3 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727048
L.Thrp.bits.UL.QCI.4.Max
Maximum uplink traffic volume for
PDCP PDUs of services with the
QCI of 4 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727049
L.Thrp.bits.UL.QCI.5.Max
Maximum uplink traffic volume for
PDCP PDUs of services with the
QCI of 5 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727050
L.Thrp.bits.UL.QCI.6.Max
Maximum uplink traffic volume for
PDCP PDUs of services with the
QCI of 6 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727051
L.Thrp.bits.UL.QCI.7.Max
Maximum uplink traffic volume for
PDCP PDUs of services with the
QCI of 7 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727052
L.Thrp.bits.UL.QCI.8.Max
Maximum uplink traffic volume for
PDCP PDUs of services with the
QCI of 8 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727053
L.Thrp.bits.UL.QCI.9.Max
Maximum uplink traffic volume for
PDCP PDUs of services with the
QCI of 9 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727054
L.Thrp.bits.UL.Max
Maximum uplink traffic volume for
PDCP PDUs of all services
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727055
L.Thrp.bits.DL.QCI.1.Max
Multi-mode: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Maximum downlink traffic volume for GSM: None
PDCP SDUs of services with the
UMTS: None
QCI of 1 in a cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727056
L.Thrp.bits.DL.QCI.2.Max
Maximum downlink traffic volume for Multi-mode: None
PDCP SDUs of services with the
GSM: None
QCI of 2 in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727057
L.Thrp.bits.DL.QCI.3.Max
Maximum downlink traffic volume for Multi-mode: None
PDCP SDUs of services with the
GSM: None
QCI of 3 in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727058
L.Thrp.bits.DL.QCI.4.Max
Maximum downlink traffic volume for Multi-mode: None
PDCP SDUs of services with the
GSM: None
QCI of 4 in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727059
L.Thrp.bits.DL.QCI.5.Max
Maximum downlink traffic volume for Multi-mode: None
PDCP SDUs of services with the
GSM: None
QCI of 5 in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727060
L.Thrp.bits.DL.QCI.6.Max
Maximum downlink traffic volume for Multi-mode: None
PDCP SDUs of services with the
GSM: None
QCI of 6 in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727061
L.Thrp.bits.DL.QCI.7.Max
Maximum downlink traffic volume for Multi-mode: None
PDCP SDUs of services with the
GSM: None
QCI of 7 in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727062
L.Thrp.bits.DL.QCI.8.Max
Maximum downlink traffic volume for Multi-mode: None
PDCP SDUs of services with the
GSM: None
QCI of 8 in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727063
L.Thrp.bits.DL.QCI.9.Max
Maximum downlink traffic volume for Multi-mode: None
PDCP SDUs of services with the
GSM: None
QCI of 9 in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727064
L.Thrp.bits.DL.Max
Maximum downlink traffic volume for Multi-mode: None
PDCP SDUs of all services
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526727354
L.Traffic.DL.SCH.QPSK.TB
Number of TBs initially transmitted
on the downlink SCH in QPSK
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
LBFD-001005
TDLBFD-002002
TDLBFD-001005
LBFD-00101501
Transport Channel
Management
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Transport Channel
Management
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
CQI Adjustment
1526727355
L.Traffic.DL.SCH.16QAM.TB
Number of TBs initially transmitted
on the downlink SCH in 16QAM
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
LBFD-001005
TDLBFD-002002
TDLBFD-001005
LBFD-00101501
Transport Channel
Management
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Transport Channel
Management
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
CQI Adjustment
1526727356
L.Traffic.DL.SCH.64QAM.TB
Number of TBs initially transmitted
on the downlink SCH in 64QAM
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
LBFD-001005
TDLBFD-002002
TDLBFD-001005
LBFD-00101501
Transport Channel
Management
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Transport Channel
Management
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
CQI Adjustment
1526727366
L.Traffic.UL.SCH.QPSK.TB
Number of TBs initially transmitted
on the uplink SCH in QPSK
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
LBFD-001005
TDLBFD-002002
TDLBFD-001005
Transport Channel
Management
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Transport Channel
Management
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727367
L.Traffic.UL.SCH.16QAM.TB
Number of TBs initially transmitted
on the uplink SCH in 16QAM
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
LBFD-001005
TDLBFD-002002
TDLBFD-001005
Transport Channel
Management
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Transport Channel
Management
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727368
L.Traffic.UL.SCH.64QAM.TB
Number of TBs initially transmitted
on the uplink SCH in 64QAM
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
LOFD-001006
TDLBFD-002002
TDLOFD-001006
Transport Channel
Management
UL 64QAM
Transport Channel
Management
UL 64QAM
1526727378
L.Traffic.User.Avg
Average number of users in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002007
TDLBFD-002007
RRC Connection
Management
RRC Connection
Management
1526727388
L.DLPwr.Max
Maximum downlink transmit power
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LOFD-070205
1526727389
L.DLPwr.Avg
Average downlink transmit power in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-070205
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
1526727391
L.ChMeas.MIMO.PRB.CL.Rank1
Total number of used downlink
PRBs in closed-loop rank 1 mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001001
LOFD-001003
LOFD-001060
LOFD-070205
LEOFD-111305
Basic Scheduling
Basic Scheduling
DL 2x2 MIMO
DL 4x2 MIMO
DL 4x4 MIMO
Adaptive SFN/SDMA
Virtual 4T4R
1526727392
L.ChMeas.MIMO.PRB.CL.Rank2
Total number of used downlink
PRBs in closed-loop rank 2 mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001001
LOFD-001003
LOFD-001060
LOFD-070205
LEOFD-111305
Basic Scheduling
Basic Scheduling
DL 2x2 MIMO
DL 4x2 MIMO
DL 4x4 MIMO
Adaptive SFN/SDMA
Virtual 4T4R
1526727393
L.ChMeas.MIMO.PRB.OL.Rank1
Total number of used downlink
PRBs in open-loop rank 1 mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001001
LOFD-001003
LOFD-001060
LOFD-070205
TDLOFD-001001
LEOFD-111305
Basic Scheduling
Basic Scheduling
DL 2x2 MIMO
DL 4x2 MIMO
DL 4x4 MIMO
Adaptive SFN/SDMA
DL 2x2 MIMO
Virtual 4T4R
1526727394
L.ChMeas.MIMO.PRB.OL.Rank2
Total number of used downlink
PRBs in open-loop rank 2 mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001001
LOFD-001003
LOFD-001060
LOFD-070205
TDLOFD-001001
LEOFD-111305
Basic Scheduling
Basic Scheduling
DL 2x2 MIMO
DL 4x2 MIMO
DL 4x4 MIMO
Adaptive SFN/SDMA
DL 2x2 MIMO
Virtual 4T4R
1526727396
L.ChMeas.CQI.DL.0
Number of wideband CQI reports
with the value of 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727397
L.ChMeas.CQI.DL.1
Number of wideband CQI reports
with the value of 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727398
L.ChMeas.CQI.DL.2
Number of wideband CQI reports
with the value of 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
1526727399
L.ChMeas.CQI.DL.3
Number of wideband CQI reports
with the value of 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727400
L.ChMeas.CQI.DL.4
Number of wideband CQI reports
with the value of 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727401
L.ChMeas.CQI.DL.5
Number of wideband CQI reports
with the value of 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727402
L.ChMeas.CQI.DL.6
Number of wideband CQI reports
with the value of 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727403
L.ChMeas.CQI.DL.7
Number of wideband CQI reports
with the value of 7
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727404
L.ChMeas.CQI.DL.8
Number of wideband CQI reports
with the value of 8
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727405
L.ChMeas.CQI.DL.9
Number of wideband CQI reports
with the value of 9
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727406
L.ChMeas.CQI.DL.10
Number of wideband CQI reports
with the value of 10
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727407
L.ChMeas.CQI.DL.11
Number of wideband CQI reports
with the value of 11
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727408
L.ChMeas.CQI.DL.12
Number of wideband CQI reports
with the value of 12
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727409
L.ChMeas.CQI.DL.13
Number of wideband CQI reports
with the value of 13
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
1526727410
L.ChMeas.CQI.DL.14
Number of wideband CQI reports
with the value of 14
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727411
L.ChMeas.CQI.DL.15
Number of wideband CQI reports
with the value of 15
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526727412
L.ChMeas.PUSCH.MCS.0
Number of times MCS index 0 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727413
L.ChMeas.PUSCH.MCS.1
Number of times MCS index 1 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727414
L.ChMeas.PUSCH.MCS.2
Number of times MCS index 2 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727415
L.ChMeas.PUSCH.MCS.3
Number of times MCS index 3 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727416
L.ChMeas.PUSCH.MCS.4
Number of times MCS index 4 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727417
L.ChMeas.PUSCH.MCS.5
Number of times MCS index 5 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727418
L.ChMeas.PUSCH.MCS.6
Number of times MCS index 6 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727419
L.ChMeas.PUSCH.MCS.7
Number of times MCS index 7 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727420
L.ChMeas.PUSCH.MCS.8
Number of times MCS index 8 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727421
L.ChMeas.PUSCH.MCS.9
Number of times MCS index 9 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727422
L.ChMeas.PUSCH.MCS.10
Number of times MCS index 10 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727423
L.ChMeas.PUSCH.MCS.11
Number of times MCS index 11 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727424
L.ChMeas.PUSCH.MCS.12
Number of times MCS index 12 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727425
L.ChMeas.PUSCH.MCS.13
Number of times MCS index 13 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727426
L.ChMeas.PUSCH.MCS.14
Number of times MCS index 14 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727427
L.ChMeas.PUSCH.MCS.15
Number of times MCS index 15 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727428
L.ChMeas.PUSCH.MCS.16
Multi-mode: None
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of times MCS index 16 is
scheduled on the PUSCH
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727429
L.ChMeas.PUSCH.MCS.17
Number of times MCS index 17 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727430
L.ChMeas.PUSCH.MCS.18
Number of times MCS index 18 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727431
L.ChMeas.PUSCH.MCS.19
Number of times MCS index 19 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727432
L.ChMeas.PUSCH.MCS.20
Number of times MCS index 20 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727433
L.ChMeas.PUSCH.MCS.21
Number of times MCS index 21 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727434
L.ChMeas.PUSCH.MCS.22
Number of times MCS index 22 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727435
L.ChMeas.PUSCH.MCS.23
Number of times MCS index 23 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727436
L.ChMeas.PUSCH.MCS.24
Number of times MCS index 24 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727437
L.ChMeas.PUSCH.MCS.25
Multi-mode: None
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of times MCS index 25 is
scheduled on the PUSCH
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LBFD-001005
TDLBFD-001005
LOFD-001006
TDLOFD-001006
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
UL 64QAM
UL 64QAM
1526727438
L.ChMeas.PUSCH.MCS.26
Number of times MCS index 26 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LBFD-001005
TDLBFD-001005
LOFD-001006
TDLOFD-001006
Basic Scheduling
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
UL 64QAM
UL 64QAM
1526727439
L.ChMeas.PUSCH.MCS.27
Number of times MCS index 27 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LBFD-001005
TDLBFD-001005
LOFD-001006
TDLOFD-001006
Basic Scheduling
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
UL 64QAM
UL 64QAM
1526727440
L.ChMeas.PUSCH.MCS.28
Number of times MCS index 28 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LBFD-001005
TDLBFD-001005
LOFD-001006
TDLOFD-001006
Basic Scheduling
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
UL 64QAM
UL 64QAM
1526727441
L.ChMeas.PUSCH.MCS.29
Number of times MCS index 29 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LBFD-001005
TDLBFD-001005
LOFD-001006
TDLOFD-001006
Basic Scheduling
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
UL 64QAM
UL 64QAM
1526727442
L.ChMeas.PUSCH.MCS.30
Number of times MCS index 30 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LBFD-001005
TDLBFD-001005
LOFD-001006
TDLOFD-001006
Basic Scheduling
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
UL 64QAM
UL 64QAM
1526727443
L.ChMeas.PUSCH.MCS.31
Number of times MCS index 31 is
scheduled on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LBFD-001005
TDLBFD-001005
LOFD-001006
TDLOFD-001006
Basic Scheduling
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
UL 64QAM
UL 64QAM
1526727444
L.ChMeas.PDSCH.MCS.0
Number of times MCS index 0 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727445
L.ChMeas.PDSCH.MCS.1
Number of times MCS index 1 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727446
L.ChMeas.PDSCH.MCS.2
Number of times MCS index 2 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727447
L.ChMeas.PDSCH.MCS.3
Number of times MCS index 3 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727448
L.ChMeas.PDSCH.MCS.4
Number of times MCS index 4 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727449
L.ChMeas.PDSCH.MCS.5
Number of times MCS index 5 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727450
L.ChMeas.PDSCH.MCS.6
Number of times MCS index 6 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727451
L.ChMeas.PDSCH.MCS.7
Number of times MCS index 7 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727452
L.ChMeas.PDSCH.MCS.8
Number of times MCS index 8 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727453
L.ChMeas.PDSCH.MCS.9
Number of times MCS index 9 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727454
L.ChMeas.PDSCH.MCS.10
Number of times MCS index 10 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727455
L.ChMeas.PDSCH.MCS.11
Number of times MCS index 11 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727456
L.ChMeas.PDSCH.MCS.12
Number of times MCS index 12 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727457
L.ChMeas.PDSCH.MCS.13
Number of times MCS index 13 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727458
L.ChMeas.PDSCH.MCS.14
Number of times MCS index 14 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727459
L.ChMeas.PDSCH.MCS.15
Number of times MCS index 15 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727460
L.ChMeas.PDSCH.MCS.16
Number of times MCS index 16 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727461
L.ChMeas.PDSCH.MCS.17
Number of times MCS index 17 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727462
L.ChMeas.PDSCH.MCS.18
Number of times MCS index 18 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727463
L.ChMeas.PDSCH.MCS.19
Number of times MCS index 19 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727464
L.ChMeas.PDSCH.MCS.20
Number of times MCS index 20 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727465
L.ChMeas.PDSCH.MCS.21
Number of times MCS index 21 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727466
L.ChMeas.PDSCH.MCS.22
Number of times MCS index 22 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727467
L.ChMeas.PDSCH.MCS.23
Number of times MCS index 23 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727468
L.ChMeas.PDSCH.MCS.24
Number of times MCS index 24 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727469
L.ChMeas.PDSCH.MCS.25
Number of times MCS index 25 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727470
L.ChMeas.PDSCH.MCS.26
Number of times MCS index 26 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727471
L.ChMeas.PDSCH.MCS.27
Number of times MCS index 27 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727472
L.ChMeas.PDSCH.MCS.28
Number of times MCS index 28 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727473
L.ChMeas.PDSCH.MCS.29
Number of times MCS index 29 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727474
L.ChMeas.PDSCH.MCS.30
Number of times MCS index 30 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727475
L.ChMeas.PDSCH.MCS.31
Number of times MCS index 31 is
scheduled on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
1526727483
L.ChMeas.PRB.PUCCH.Avg
Average number of used PRBs over Multi-mode: None
the PUCCH
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526727849
L.Thrp.bits.UL.PLMN.QCI.1
Total uplink traffic volume for PDCP
SDUs for a specific operator for
services with the QCI of 1 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526727850
L.Thrp.Time.UL.PLMN.QCI.1
Receive duration of uplink PDCP
SDUs for a specific operator for
services with the QCI of 1 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526727852
L.Thrp.bits.UL.PLMN.QCI.2
Multi-mode: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Total uplink traffic volume for PDCP
SDUs for a specific operator for
services with the QCI of 2 in a cell
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526727889
L.PDCP.Tx.TotRev.Trf.SDU.QCI.1
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 1 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727891
L.PDCP.Tx.TotRev.Trf.SDU.QCI.2
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 2 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727893
L.PDCP.Tx.TotRev.Trf.SDU.QCI.3
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 3 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727895
L.PDCP.Tx.TotRev.Trf.SDU.QCI.4
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 4 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727897
L.PDCP.Tx.TotRev.Trf.SDU.QCI.5
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 5 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727899
L.PDCP.Tx.TotRev.Trf.SDU.QCI.6
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 6 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727901
L.PDCP.Tx.TotRev.Trf.SDU.QCI.7
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 7 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727903
L.PDCP.Tx.TotRev.Trf.SDU.QCI.8
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 8 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526727905
L.PDCP.Tx.TotRev.Trf.SDU.QCI.9
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 9 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727907
L.Traffic.DL.PktDelay.Time.QCI.1
Total processing delay of downlink
PDCP SDUs for DRB services with
the QCI of 1 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727908
L.Traffic.DL.PktDelay.Num.QCI.1
Number of successfully transmitted
downlink PDCP SDUs for DRB
services with the QCI of 1 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727910
L.Traffic.DL.PktDelay.Time.QCI.2
Total processing delay of downlink
PDCP SDUs for DRB services with
the QCI of 2 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727911
L.Traffic.DL.PktDelay.Num.QCI.2
Number of successfully transmitted
downlink PDCP SDUs for DRB
services with the QCI of 2 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727913
L.Traffic.DL.PktDelay.Time.QCI.3
Total processing delay of downlink
PDCP SDUs for DRB services with
the QCI of 3 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727914
L.Traffic.DL.PktDelay.Num.QCI.3
Number of successfully transmitted
downlink PDCP SDUs for DRB
services with the QCI of 3 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727916
L.Traffic.DL.PktDelay.Time.QCI.4
Total processing delay of downlink
PDCP SDUs for DRB services with
the QCI of 4 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727917
L.Traffic.DL.PktDelay.Num.QCI.4
Number of successfully transmitted
downlink PDCP SDUs for DRB
services with the QCI of 4 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
L.Traffic.DL.PktDelay.Time.QCI.5
Counter ID
Counter Name
1526727919
Counter Description
Feature ID
Feature Name
Total processing delay of downlink
PDCP SDUs for DRB services with
the QCI of 5 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727920
L.Traffic.DL.PktDelay.Num.QCI.5
Number of successfully transmitted
downlink PDCP SDUs for DRB
services with the QCI of 5 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727922
L.Traffic.DL.PktDelay.Time.QCI.6
Total processing delay of downlink
PDCP SDUs for DRB services with
the QCI of 6 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727923
L.Traffic.DL.PktDelay.Num.QCI.6
Number of successfully transmitted
downlink PDCP SDUs for DRB
services with the QCI of 6 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727925
L.Traffic.DL.PktDelay.Time.QCI.7
Total processing delay of downlink
PDCP SDUs for DRB services with
the QCI of 7 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727926
L.Traffic.DL.PktDelay.Num.QCI.7
Number of successfully transmitted
downlink PDCP SDUs for DRB
services with the QCI of 7 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727928
L.Traffic.DL.PktDelay.Time.QCI.8
Total processing delay of downlink
PDCP SDUs for DRB services with
the QCI of 8 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727929
L.Traffic.DL.PktDelay.Num.QCI.8
Number of successfully transmitted
downlink PDCP SDUs for DRB
services with the QCI of 8 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727931
L.Traffic.DL.PktDelay.Time.QCI.9
Total processing delay of downlink
PDCP SDUs for DRB services with
the QCI of 9 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727932
L.Traffic.DL.PktDelay.Num.QCI.9
Number of successfully transmitted
downlink PDCP SDUs for DRB
services with the QCI of 9 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526727934
L.Traffic.DL.PktUuLoss.Loss.QCI.1
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 1 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727935
L.Traffic.DL.PktUuLoss.Tot.QCI.1
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 1 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727937
L.Traffic.DL.PktUuLoss.Loss.QCI.2
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 2 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727938
L.Traffic.DL.PktUuLoss.Tot.QCI.2
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 2 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727940
L.Traffic.DL.PktUuLoss.Loss.QCI.3
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 3 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727941
L.Traffic.DL.PktUuLoss.Tot.QCI.3
Number of downlink transmitted
PDCP SDUs for services carried on
DRBs with a QCI of 3 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727943
L.Traffic.DL.PktUuLoss.Loss.QCI.4
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 4 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727944
L.Traffic.DL.PktUuLoss.Tot.QCI.4
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 4 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727946
L.Traffic.DL.PktUuLoss.Loss.QCI.5
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 5 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
L.Traffic.DL.PktUuLoss.Tot.QCI.5
Counter ID
Counter Name
1526727947
Counter Description
Feature ID
Feature Name
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 5 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727949
L.Traffic.DL.PktUuLoss.Loss.QCI.6
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 6 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727950
L.Traffic.DL.PktUuLoss.Tot.QCI.6
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 6 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727952
L.Traffic.DL.PktUuLoss.Loss.QCI.7
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 7 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727953
L.Traffic.DL.PktUuLoss.Tot.QCI.7
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 7 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727955
L.Traffic.DL.PktUuLoss.Loss.QCI.8
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 8 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727956
L.Traffic.DL.PktUuLoss.Tot.QCI.8
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 8 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727958
L.Traffic.DL.PktUuLoss.Loss.QCI.9
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 9 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727959
L.Traffic.DL.PktUuLoss.Tot.QCI.9
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 9 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727961
L.Traffic.UL.PktLoss.Loss.QCI.1
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 1 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526727962
L.Traffic.UL.PktLoss.Tot.QCI.1
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 1 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727964
L.Traffic.UL.PktLoss.Loss.QCI.2
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 2 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727965
L.Traffic.UL.PktLoss.Tot.QCI.2
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 2 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727967
L.Traffic.UL.PktLoss.Loss.QCI.3
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 3 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727968
L.Traffic.UL.PktLoss.Tot.QCI.3
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 3 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727970
L.Traffic.UL.PktLoss.Loss.QCI.4
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 4 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727971
L.Traffic.UL.PktLoss.Tot.QCI.4
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 4 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727973
L.Traffic.UL.PktLoss.Loss.QCI.5
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 5 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727974
L.Traffic.UL.PktLoss.Tot.QCI.5
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 5 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
L.Traffic.UL.PktLoss.Loss.QCI.6
Counter ID
Counter Name
1526727976
Counter Description
Feature ID
Feature Name
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 6 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727977
L.Traffic.UL.PktLoss.Tot.QCI.6
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 6 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727979
L.Traffic.UL.PktLoss.Loss.QCI.7
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 7 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727980
L.Traffic.UL.PktLoss.Tot.QCI.7
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 7 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727982
L.Traffic.UL.PktLoss.Loss.QCI.8
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 8 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727983
L.Traffic.UL.PktLoss.Tot.QCI.8
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 8 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727985
L.Traffic.UL.PktLoss.Loss.QCI.9
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 9 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526727986
L.Traffic.UL.PktLoss.Tot.QCI.9
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 9 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728027
L.Thrp.Time.UL.PLMN.QCI.2
Receive duration of uplink PDCP
SDUs for a specific operator for
services with the QCI of 2 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728029
L.Thrp.bits.UL.PLMN.QCI.3
Total uplink traffic volume for PDCP
SDUs for a specific operator for
services with the QCI of 3 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728030
L.Thrp.Time.UL.PLMN.QCI.3
Receive duration of uplink PDCP
SDUs for a specific operator for
services with the QCI of 3 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728032
L.Thrp.bits.UL.PLMN.QCI.4
Total uplink traffic volume for PDCP
SDUs for a specific operator for
services with the QCI of 4 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728033
L.Thrp.Time.UL.PLMN.QCI.4
Receive duration of uplink PDCP
SDUs for a specific operator for
services with the QCI of 4 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728035
L.Thrp.bits.UL.PLMN.QCI.5
Total uplink traffic volume for PDCP
SDUs for a specific operator for
services with the QCI of 5 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728036
L.Thrp.Time.UL.PLMN.QCI.5
Receive duration of uplink PDCP
SDUs for a specific operator for
services with the QCI of 5 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728038
L.Thrp.bits.UL.PLMN.QCI.6
Total uplink traffic volume for PDCP
SDUs for a specific operator for
services with the QCI of 6 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728039
L.Thrp.Time.UL.PLMN.QCI.6
Receive duration of uplink PDCP
SDUs for a specific operator for
services with the QCI of 6 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728041
L.Thrp.bits.UL.PLMN.QCI.7
Total uplink traffic volume for PDCP
SDUs for a specific operator for
services with the QCI of 7 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728042
L.Thrp.Time.UL.PLMN.QCI.7
Receive duration of uplink PDCP
SDUs for a specific operator for
services with the QCI of 7 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728044
L.Thrp.bits.UL.PLMN.QCI.8
Total uplink traffic volume for PDCP
SDUs for a specific operator for
services with the QCI of 8 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728045
L.Thrp.Time.UL.PLMN.QCI.8
Receive duration of uplink PDCP
SDUs for a specific operator for
services with the QCI of 8 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728047
L.Thrp.bits.UL.PLMN.QCI.9
Total uplink traffic volume for PDCP
SDUs for a specific operator for
services with the QCI of 9 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728048
L.Thrp.Time.UL.PLMN.QCI.9
Receive duration of uplink PDCP
SDUs for a specific operator for
services with the QCI of 9 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728050
L.Thrp.bits.DL.PLMN.QCI.1
Total downlink traffic volume for
PDCP SDUs for a specific operator
for services with the QCI of 1 in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728051
L.Thrp.Time.DL.PLMN.QCI.1
Transmit duration of downlink PDCP Multi-mode: None
SDUs for a specific operator for
GSM: None
services with the QCI of 1 in a cell
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728053
L.Thrp.bits.DL.PLMN.QCI.2
Total downlink traffic volume for
PDCP SDUs for a specific operator
for services with the QCI of 2 in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728054
L.Thrp.Time.DL.PLMN.QCI.2
Transmit duration of downlink PDCP Multi-mode: None
SDUs for a specific operator for
GSM: None
services with the QCI of 2 in a cell
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728056
L.Thrp.bits.DL.PLMN.QCI.3
Total downlink traffic volume for
PDCP SDUs for a specific operator
for services with the QCI of 3 in a
cell
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728057
L.Thrp.Time.DL.PLMN.QCI.3
Transmit duration of downlink PDCP Multi-mode: None
SDUs for a specific operator for
GSM: None
services with the QCI of 3 in a cell
UMTS: None
LTE: LBFD-002008
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728059
L.Thrp.bits.DL.PLMN.QCI.4
Total downlink traffic volume for
PDCP SDUs for a specific operator
for services with the QCI of 4 in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728060
L.Thrp.Time.DL.PLMN.QCI.4
Transmit duration of downlink PDCP Multi-mode: None
SDUs in a cell for a specific operator GSM: None
for services with the QCI of 4 in a
UMTS: None
cell
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728062
L.Thrp.bits.DL.PLMN.QCI.5
Total downlink traffic volume for
PDCP SDUs for a specific operator
for services with the QCI of 5 in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728063
L.Thrp.Time.DL.PLMN.QCI.5
Transmit duration of downlink PDCP Multi-mode: None
SDUs for a specific operator for
GSM: None
services with the QCI of 5 in a cell
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728065
L.Thrp.bits.DL.PLMN.QCI.6
Total downlink traffic volume for
PDCP SDUs for a specific operator
Radio Bearer
Management
Multi-mode: None
GSM: None
UMTS: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
for services with the QCI of 6 in a
cell
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728066
L.Thrp.Time.DL.PLMN.QCI.6
Transmit duration of downlink PDCP Multi-mode: None
SDUs for a specific operator for
GSM: None
services with the QCI of 6 in a cell
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728068
L.Thrp.bits.DL.PLMN.QCI.7
Total downlink traffic volume for
PDCP SDUs for a specific operator
for services with the QCI of 7 in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728069
L.Thrp.Time.DL.PLMN.QCI.7
Transmit duration of downlink PDCP Multi-mode: None
SDUs for a specific operator for
GSM: None
services with the QCI of 7 in a cell
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728071
L.Thrp.bits.DL.PLMN.QCI.8
Total downlink traffic volume for
PDCP SDUs for a specific operator
for services with the QCI of 8 in a
cell
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728072
L.Thrp.Time.DL.PLMN.QCI.8
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Multi-mode: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Transmit duration of downlink PDCP GSM: None
SDUs for a specific operator for
UMTS: None
services with the QCI of 8 in a cell
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728074
L.Thrp.bits.DL.PLMN.QCI.9
Total downlink traffic volume for
PDCP SDUs for a specific operator
for services with the QCI of 9 in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728075
L.Thrp.Time.DL.PLMN.QCI.9
Transmit duration of downlink PDCP Multi-mode: None
SDUs for a specific operator for
GSM: None
services with the QCI of 9 in a cell
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728174
L.ChMeas.MIMO.PRB.CL.Rank3
Total number of used downlink
PRBs in closed-loop rank 3 mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001060
LOFD-070205
LEOFD-111305
Basic Scheduling
Basic Scheduling
DL 4x4 MIMO
Adaptive SFN/SDMA
Virtual 4T4R
1526728175
L.ChMeas.MIMO.PRB.CL.Rank4
Total number of used downlink
PRBs in closed-loop rank 4 mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001060
LOFD-070205
LEOFD-111305
Basic Scheduling
Basic Scheduling
DL 4x4 MIMO
Adaptive SFN/SDMA
Virtual 4T4R
1526728176
L.ChMeas.MIMO.PRB.OL.Rank3
Total number of used downlink
PRBs in open-loop rank 3 mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001060
LOFD-070205
LEOFD-111305
Basic Scheduling
Basic Scheduling
DL 4x4 MIMO
Adaptive SFN/SDMA
Virtual 4T4R
1526728177
L.ChMeas.MIMO.PRB.OL.Rank4
Total number of used downlink
PRBs in open-loop rank 4 mode
Multi-mode: None
GSM: None
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001060
LOFD-070205
LEOFD-111305
DL 4x4 MIMO
Adaptive SFN/SDMA
Virtual 4T4R
1526728180
L.Traffic.DL.SCH.QPSK.ErrTB.Ibler
Number of downlink error TBs after
initial transmission in QPSK
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
TDLBFD-002002
LBFD-00101501
Transport Channel
Management
Transport Channel
Management
CQI Adjustment
1526728182
L.Traffic.DL.SCH.16QAM.ErrTB.Ibler
Number of downlink error TBs after
initial transmission in 16QAM
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
TDLBFD-002002
LBFD-00101501
Transport Channel
Management
Transport Channel
Management
CQI Adjustment
1526728184
L.Traffic.DL.SCH.64QAM.ErrTB.Ibler
Number of downlink error TBs after
initial transmission in 64QAM
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
TDLBFD-002002
LBFD-00101501
Transport Channel
Management
Transport Channel
Management
CQI Adjustment
1526728186
L.Traffic.UL.SCH.QPSK.ErrTB.Ibler
Number of uplink error TBs after
initial transmission in QPSK
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
TDLBFD-002002
Transport Channel
Management
Transport Channel
Management
1526728188
L.Traffic.UL.SCH.16QAM.ErrTB.Ibler
Number of uplink error TBs after
initial transmission in 16QAM
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
TDLBFD-002002
Transport Channel
Management
Transport Channel
Management
1526728190
L.Traffic.UL.SCH.64QAM.ErrTB.Ibler
Number of uplink error TBs after
initial transmission in 64QAM
modulation mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002002
TDLBFD-002002
Transport Channel
Management
Transport Channel
Management
1526728232
L.Thrp.Time.Cell.DL
Total duration of downlink data
transmission in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728233
L.Thrp.Time.Cell.UL
Total duration of uplink data
transmission in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728234
L.E-RAB.SessionTime.QCI1
Duration of data transmission for
services with the QCI of 1 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728235
L.E-RAB.SessionTime.QCI2
Duration of data transmission for
services with the QCI of 2 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002025
1526728236
L.E-RAB.SessionTime.QCI3
Duration of data transmission for
services with the QCI of 3 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728237
L.E-RAB.SessionTime.QCI4
Duration of data transmission for
services with the QCI of 4 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728238
L.E-RAB.SessionTime.QCI5
Duration of data transmission for
services with the QCI of 5 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728239
L.E-RAB.SessionTime.QCI6
Duration of data transmission for
services with the QCI of 6 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728240
L.E-RAB.SessionTime.QCI7
Duration of data transmission for
services with the QCI of 7 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728241
L.E-RAB.SessionTime.QCI8
Duration of data transmission for
services with the QCI of 8 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728242
L.E-RAB.SessionTime.QCI9
Duration of data transmission for
services with the QCI of 9 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728243
L.E-RAB.SessionTime.UE
Total duration of UE data
transmission time in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728259
L.Thrp.bits.UL
Total uplink traffic volume for PDCP
PDUs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728260
L.Thrp.Time.UL
Total receive duration of uplink
PDCP PDUs in a cell
Multi-mode: None
GSM: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728261
L.Thrp.bits.DL
Total downlink traffic volume for
PDCP SDUs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728262
L.Thrp.Time.DL
Total transmit duration of downlink
PDCP SDUs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728263
L.Thrp.bits.UL.PLMN
Total uplink traffic volume for PDCP Multi-mode: None
SDUs for a specific operator in a cell GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728264
L.Thrp.Time.UL.PLMN
Total receive duration of uplink
PDCP SDUs for a specific operator
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728265
L.Thrp.bits.DL.PLMN
Total downlink traffic volume for
PDCP SDUs for a specific operator
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728266
L.Thrp.Time.DL.PLMN
Total transmit duration of downlink
PDCP SDUs for a specific operator
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526728293
L.RBUsedOwn.DL.PLMN
Average number of own PDSCH
PRBs used by a specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001036
LOFD-001037
LOFD-070205
TDLOFD-001036
TDLOFD-001037
LOFD-070206
LEOFD-111305
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Adaptive SFN/SDMA
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
Virtual 4T4R
1526728294
L.RBUsedOwn.UL.PLMN
Average number of own PUSCH
PRBs used by a specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001036
LOFD-001037
LOFD-070205
TDLOFD-001036
TDLOFD-001037
LOFD-070206
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Adaptive SFN/SDMA
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526728295
L.RBUsedOther.DL.PLMN
Average number of other operators'
PDSCH PRBs used by a specific
operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001036
LOFD-001037
LOFD-070205
TDLOFD-001036
TDLOFD-001037
LOFD-070206
LEOFD-111305
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Adaptive SFN/SDMA
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
Virtual 4T4R
1526728296
L.RBUsedOther.UL.PLMN
Average number of other operators'
PUSCH PRBs used by a specific
operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001036
LOFD-001037
LOFD-070205
TDLOFD-001036
TDLOFD-001037
LOFD-070206
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Adaptive SFN/SDMA
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526728298
L.UL.Interference.Avg
Average uplink interference and
Multi-mode: None
noise received by each PRB in a cell GSM: None
UMTS: None
LTE: LBFD-002003
TDLBFD-002003
LOFD-070205
Physical Channel
Management
Physical Channel
Management
Adaptive SFN/SDMA
1526728299
L.ChMeas.PDCCH.SymNum.1
Number of times the PDCCH
occupies one symbol in a
measurement period
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002003
TDLBFD-002003
Physical Channel
Management
Physical Channel
Management
1526728303
L.ChMeas.CCE.CommUsed
Number of PDCCH CCEs used for
common DCI
Multi-mode: None
GSM: None
Physical Channel
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
UMTS: None
LTE: LBFD-002003
TDLBFD-002003
Physical Channel
Management
1526728304
L.ChMeas.CCE.ULUsed
Number of PDCCH CCEs used for
uplink DCI in a measurement period
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002003
TDLBFD-002003
Physical Channel
Management
Physical Channel
Management
1526728305
L.ChMeas.CCE.DLUsed
Number of PDCCH CCEs used for
downlink DCI in a measurement
period
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002003
TDLBFD-002003
Physical Channel
Management
Physical Channel
Management
1526728433
L.ChMeas.PRB.DL.Avail
Number of available downlink PRBs
Multi-mode: MRFD090202
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
LOFD-070205
TDLOFD-001075
LEOFD-111305
GSM and LTE FDD
Dynamic Spectrum
Sharing(LTE FDD)
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
Adaptive SFN/SDMA
SFN
Virtual 4T4R
1526728434
L.ChMeas.PRB.UL.Avail
Number of available uplink PRBs
Multi-mode: MRFD090202
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
LOFD-070205
TDLOFD-001075
GSM and LTE FDD
Dynamic Spectrum
Sharing(LTE FDD)
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
Adaptive SFN/SDMA
SFN
1526728483
L.ChMeas.PRB.UL.FSS.Avg
Average number of PRBs allocated
for uplink frequency selective
scheduling
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728484
L.ChMeas.PRB.DL.FSS.Avg
Average number of PRBs allocated
for downlink frequency selective
scheduling
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LEOFD-111305
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526728545
L.ChMeas.PRB.UL.PreSch.Used.Avg
Average number of PRBs allocated
for uplink pre-scheduling
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-001059
TDLOFD-001059
Basic Scheduling
Basic Scheduling
UL Pre-allocation Based
on SPID
UL Pre-allocation Based
on SPID
1526728564
L.Thrp.bits.DL.CAUser
Total traffic volume for PDCP SDUs
sent to activated CA UEs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728565
L.Thrp.Time.DL.CAUser
Total duration for activated CA UEs
transmitting downlink data at the
PDCP layer in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728566
L.ChMeas.PRB.UL.MCS.0
Number of PRBs on the PUSCH
using MCS index 0 for scheduling in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
1526728567
L.ChMeas.PRB.UL.MCS.1
Number of PRBs on the PUSCH
using MCS index 1 for scheduling in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728568
L.ChMeas.PRB.UL.MCS.2
Number of PRBs on the PUSCH
using MCS index 2 for scheduling in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728569
L.ChMeas.PRB.UL.MCS.3
Number of PRBs on the PUSCH
using MCS index 3 for scheduling in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728570
L.ChMeas.PRB.UL.MCS.4
Number of PRBs on the PUSCH
using MCS index 4 for scheduling in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728571
L.ChMeas.PRB.UL.MCS.5
Number of PRBs on the PUSCH
using MCS index 5 for scheduling in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728572
L.ChMeas.PRB.UL.MCS.6
Number of PRBs on the PUSCH
using MCS index 6 for scheduling in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728573
L.ChMeas.PRB.UL.MCS.7
Number of PRBs on the PUSCH
using MCS index 7 for scheduling in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728574
L.ChMeas.PRB.UL.MCS.8
Number of PRBs on the PUSCH
using MCS index 8 for scheduling in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728575
L.ChMeas.PRB.UL.MCS.9
Number of PRBs on the PUSCH
using MCS index 9 for scheduling in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728576
L.ChMeas.PRB.UL.MCS.10
Number of PRBs on the PUSCH
using MCS index 10 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728577
L.ChMeas.PRB.UL.MCS.11
Number of PRBs on the PUSCH
using MCS index 11 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728578
L.ChMeas.PRB.UL.MCS.12
Number of PRBs on the PUSCH
using MCS index 12 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728579
L.ChMeas.PRB.UL.MCS.13
Number of PRBs on the PUSCH
using MCS index 13 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
1526728580
L.ChMeas.PRB.UL.MCS.14
Number of PRBs on the PUSCH
using MCS index 14 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728581
L.ChMeas.PRB.UL.MCS.15
Number of PRBs on the PUSCH
using MCS index 15 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728582
L.ChMeas.PRB.UL.MCS.16
Number of PRBs on the PUSCH
using MCS index 16 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728583
L.ChMeas.PRB.UL.MCS.17
Number of PRBs on the PUSCH
using MCS index 17 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728584
L.ChMeas.PRB.UL.MCS.18
Number of PRBs on the PUSCH
using MCS index 18 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728585
L.ChMeas.PRB.UL.MCS.19
Number of PRBs on the PUSCH
using MCS index 19 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728586
L.ChMeas.PRB.UL.MCS.20
Number of PRBs on the PUSCH
using MCS index 20 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728587
L.ChMeas.PRB.UL.MCS.21
Number of PRBs on the PUSCH
using MCS index 21 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728588
L.ChMeas.PRB.UL.MCS.22
Number of PRBs on the PUSCH
using MCS index 22 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728589
L.ChMeas.PRB.UL.MCS.23
Number of PRBs on the PUSCH
using MCS index 23 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728590
L.ChMeas.PRB.UL.MCS.24
Number of PRBs on the PUSCH
using MCS index 24 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728591
L.ChMeas.PRB.UL.MCS.25
Number of PRBs on the PUSCH
using MCS index 25 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728592
L.ChMeas.PRB.UL.MCS.26
Number of PRBs on the PUSCH
using MCS index 26 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
1526728593
L.ChMeas.PRB.UL.MCS.27
Number of PRBs on the PUSCH
using MCS index 27 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728594
L.ChMeas.PRB.UL.MCS.28
Number of PRBs on the PUSCH
using MCS index 28 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728595
L.ChMeas.PRB.UL.MCS.29
Number of PRBs on the PUSCH
using MCS index 29 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728596
L.ChMeas.PRB.UL.MCS.30
Number of PRBs on the PUSCH
using MCS index 30 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728597
L.ChMeas.PRB.UL.MCS.31
Number of PRBs on the PUSCH
using MCS index 31 for scheduling
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728598
L.Traffic.UL.SCH.bits.Max
Maximum uplink traffic volume for
MAC TBs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728599
L.ChMeas.PRB.DL.RANK1.MCS.0
Number of PRBs on the PDSCH in
rank 1 mode using MCS index 0 for
scheduling in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-001005
LOFD-001001
LOFD-001003
LOFD-001060
TDLBFD-001005
TDLOFD-001001
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 2x2 MIMO
DL 4x2 MIMO
DL 4x4 MIMO
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 2x2 MIMO
1526728605
L.ChMeas.PRB.DL.RANK1.MCS.6
Number of PRBs on the PDSCH in
rank 1 mode using MCS index 6 for
scheduling in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-001005
LOFD-001001
LOFD-001003
LOFD-001060
TDLBFD-001005
TDLOFD-001001
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 2x2 MIMO
DL 4x2 MIMO
DL 4x4 MIMO
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 2x2 MIMO
1526728627
L.ChMeas.PRB.DL.RANK1.MCS.28
Number of PRBs on the PDSCH in
Multi-mode: None
rank 1 mode using MCS index 28 for GSM: None
scheduling in a cell
UMTS: None
LTE: LBFD-001005
LOFD-001001
LOFD-001003
LOFD-001060
TDLBFD-001005
TDLOFD-001001
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 2x2 MIMO
DL 4x2 MIMO
DL 4x4 MIMO
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 2x2 MIMO
1526728663
L.Traffic.DL.SCH.bits.Max
Maximum downlink traffic volume for Multi-mode: None
MAC TBs in a cell
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526728762
L.ChMeas.PRB.UL.DrbUsed.Avg
Average number of PRBs used by
PUSCH DRBs
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
Multi-mode: None
GSM: None
UMTS: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LTE: LBFD-002025
TDLBFD-002025
LOFD-070205
1526728763
L.ChMeas.PRB.DL.DrbUsed.Avg
Average number of PRBs used by
PDSCH DRBs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-070205
LEOFD-111305
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
Virtual 4T4R
1526728764
L.ChMeas.PRB.PUSCH.Avg
Average number of used PUSCH
PRBs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-070205
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
1526728765
L.ChMeas.CCE.Avail
Number of available PDCCH CCEs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002003
TDLBFD-002003
Physical Channel
Management
Physical Channel
Management
1526728774
L.RRC.ConnSetup.TimeAvg
Average RRC connection setup
duration
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002007
TDLBFD-002007
RRC Connection
Management
RRC Connection
Management
1526728776
L.E-RAB.Est.TimeAvg
Average E-RAB setup duration in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
1526728881
L.ChMeas.BF.PRB.OL.Rank1
Total number of used downlink
PRBs in BF rank 1 mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLOFD-001049
TDLOFD-001061
LEOFD-111305
Basic Scheduling
Basic Scheduling
Single Streaming
Beamforming
Dual Streaming
Beamforming
Virtual 4T4R
1526728882
L.ChMeas.BF.PRB.OL.Rank2
Total number of used downlink
PRBs in BF rank 2 mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLOFD-001049
TDLOFD-001061
LEOFD-111305
Basic Scheduling
Basic Scheduling
Single Streaming
Beamforming
Dual Streaming
Beamforming
Virtual 4T4R
1526728969
L.Traffic.ActiveUser.DL.Avg
Average number of activated UEs in Multi-mode: None
downlink
GSM: None
UMTS: None
LTE: LBFD-002007
TDLBFD-002007
RRC Connection
Management
RRC Connection
Management
1526728997
L.Thrp.Time.Cell.DL.HighPrecision
Total duration of downlink data
transmission in a cell (with the
precision of 1 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526728998
L.Thrp.Time.Cell.UL.HighPrecision
Total duration of uplink data
transmission in a cell (with the
precision of 1 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
1526729005
L.Thrp.bits.DL.LastTTI
Downlink traffic volume sent in the
last TTI for PDCP SDUs before the
buffer is empty
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729006
L.Thrp.bits.DL.LastTTI.QCI.1
Downlink traffic volume sent in the
last TTI for PDCP SDUs of services
with the QCI 1 before the buffer is
empty
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729007
L.Thrp.bits.DL.LastTTI.QCI.2
Downlink traffic volume sent in the
last TTI for PDCP SDUs of services
with the QCI 2 before the buffer is
empty
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729008
L.Thrp.bits.DL.LastTTI.QCI.3
Downlink traffic volume sent in the
last TTI for PDCP SDUs of services
with the QCI 3 before the buffer is
empty
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729009
L.Thrp.bits.DL.LastTTI.QCI.4
Downlink traffic volume sent in the
last TTI for PDCP SDUs of services
with the QCI 4 before the buffer is
empty
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729010
L.Thrp.bits.DL.LastTTI.QCI.5
Downlink traffic volume sent in the
last TTI for PDCP SDUs of services
with the QCI 5 before the buffer is
empty
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729011
L.Thrp.bits.DL.LastTTI.QCI.6
Downlink traffic volume sent in the
last TTI for PDCP SDUs of services
with the QCI 6 before the buffer is
empty
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729012
L.Thrp.bits.DL.LastTTI.QCI.7
Downlink traffic volume sent in the
last TTI for PDCP SDUs of services
with the QCI 7 before the buffer is
empty
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729013
L.Thrp.bits.DL.LastTTI.QCI.8
Downlink traffic volume sent in the
last TTI for PDCP SDUs of services
with the QCI 8 before the buffer is
empty
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729014
L.Thrp.bits.DL.LastTTI.QCI.9
Downlink traffic volume sent in the
last TTI for PDCP SDUs of services
with the QCI 9 before the buffer is
empty
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526729015
L.Thrp.Time.DL.RmvLastTTI
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729016
L.Thrp.Time.DL.RmvLastTTI.QCI.1
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 1
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729017
L.Thrp.Time.DL.RmvLastTTI.QCI.2
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 2
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729018
L.Thrp.Time.DL.RmvLastTTI.QCI.3
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 3
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729019
L.Thrp.Time.DL.RmvLastTTI.QCI.4
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 4
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729020
L.Thrp.Time.DL.RmvLastTTI.QCI.5
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 5
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729021
L.Thrp.Time.DL.RmvLastTTI.QCI.6
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 6
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729022
L.Thrp.Time.DL.RmvLastTTI.QCI.7
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 7
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729023
L.Thrp.Time.DL.RmvLastTTI.QCI.8
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 8
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
L.Thrp.Time.DL.RmvLastTTI.QCI.9
Counter ID
Counter Name
1526729024
Counter Description
Feature ID
Feature Name
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 9
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729025
L.Thrp.bits.DL.LastTTI.PLMN
Downlink traffic volume sent in the
last TTI before the buffer is empty
for a specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729026
L.Thrp.bits.DL.LastTTI.PLMN.QCI.1
Downlink traffic volume sent in the
last TTI before the buffer is empty
for services with the QCI 1 for a
specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729027
L.Thrp.bits.DL.LastTTI.PLMN.QCI.2
Downlink traffic volume sent in the
last TTI before the buffer is empty
for services with the QCI 2 for a
specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729028
L.Thrp.bits.DL.LastTTI.PLMN.QCI.3
Downlink traffic volume sent in the
last TTI before the buffer is empty
for services with the QCI 3 for a
specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729029
L.Thrp.bits.DL.LastTTI.PLMN.QCI.4
Downlink traffic volume sent in the
last TTI before the buffer is empty
for services with the QCI 4 for a
specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729030
L.Thrp.bits.DL.LastTTI.PLMN.QCI.5
Downlink traffic volume sent in the
last TTI before the buffer is empty
for services with the QCI 5 for a
specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729031
L.Thrp.bits.DL.LastTTI.PLMN.QCI.6
Downlink traffic volume sent in the
last TTI before the buffer is empty
for services with the QCI 6 for a
specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729032
L.Thrp.bits.DL.LastTTI.PLMN.QCI.7
Downlink traffic volume sent in the
last TTI before the buffer is empty
for services with the QCI 7 for a
specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729033
L.Thrp.bits.DL.LastTTI.PLMN.QCI.8
Downlink traffic volume sent in the
last TTI before the buffer is empty
for services with the QCI 8 for a
specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729034
L.Thrp.bits.DL.LastTTI.PLMN.QCI.9
Downlink traffic volume sent in the
last TTI before the buffer is empty
for services with the QCI 9 for a
specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
Radio Bearer
Management
RAN Sharing with
Common Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729035
L.Thrp.Time.DL.RmvLastTTI.PLMN
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for a specific operator
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729036
L.Thrp.Time.DL.RmvLastTTI.PLMN.QCI.1
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 1 for UMTS: None
a specific operator
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729037
L.Thrp.Time.DL.RmvLastTTI.PLMN.QCI.2
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 2 for UMTS: None
a specific operator
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729038
L.Thrp.Time.DL.RmvLastTTI.PLMN.QCI.3
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 3 for UMTS: None
a specific operator
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729039
L.Thrp.Time.DL.RmvLastTTI.PLMN.QCI.4
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
UMTS: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
empty for services with the QCI 4 for LTE: LBFD-002008
a specific operator
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729040
L.Thrp.Time.DL.RmvLastTTI.PLMN.QCI.5
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 5 for UMTS: None
a specific operator
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729041
L.Thrp.Time.DL.RmvLastTTI.PLMN.QCI.6
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 6 for UMTS: None
a specific operator
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729042
L.Thrp.Time.DL.RmvLastTTI.PLMN.QCI.7
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 7 for UMTS: None
a specific operator
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729043
L.Thrp.Time.DL.RmvLastTTI.PLMN.QCI.8
Data transmit duration except the
Multi-mode: None
last TTI before the downlink buffer is GSM: None
empty for services with the QCI 8 for UMTS: None
a specific operator
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729044
L.Thrp.Time.DL.RmvLastTTI.PLMN.QCI.9
Multi-mode: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Data transmit duration except the
GSM: None
last TTI before the downlink buffer is UMTS: None
empty for services with the QCI 9 for LTE: LBFD-002008
a specific operator
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729049
L.Thrp.bits.UE.UL.LastTTI
Traffic volume of uplink PDCP PDUs Multi-mode: None
received in the last TTI before the
GSM: None
UE buffer is empty
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729050
L.Thrp.Time.UE.UL.RmvLastTTI
Uplink data transmit duration except
the last TTI before the UE buffer is
empty
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729051
L.Thrp.bits.UE.UL.LastTTI.PLMN
Traffic volume of uplink PDCP PDUs Multi-mode: None
received in the last TTI before the
GSM: None
UE buffer is empty for a specific
UMTS: None
operator
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526729052
L.Thrp.Time.UE.UL.RmvLastTTI.PLMN
Uplink data transmit duration except
the last TTI before the UE buffer is
empty for a specific operator
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526729056
L.Thrp.DL.BitRate.Samp.Index0
Number of samples with the
downlink throughput ranging within
index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729057
L.Thrp.DL.BitRate.Samp.Index1
Number of samples with the
downlink throughput ranging within
index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
1526729058
L.Thrp.DL.BitRate.Samp.Index2
Number of samples with the
downlink throughput ranging within
index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729059
L.Thrp.DL.BitRate.Samp.Index3
Number of samples with the
downlink throughput ranging within
index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729060
L.Thrp.DL.BitRate.Samp.Index4
Number of samples with the
downlink throughput ranging within
index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729061
L.Thrp.DL.BitRate.Samp.Index5
Number of samples with the
downlink throughput ranging within
index 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729062
L.Thrp.DL.BitRate.Samp.Index6
Number of samples with the
downlink throughput ranging within
index 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729063
L.Thrp.DL.BitRate.Samp.Index7
Number of samples with the
downlink throughput ranging within
index 7
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729064
L.Thrp.DL.BitRate.Samp.Index8
Number of samples with the
downlink throughput ranging within
index 8
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729065
L.Thrp.DL.BitRate.Samp.Index9
Number of samples with the
downlink throughput ranging within
index 9
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729066
L.Thrp.DL.BitRate.QCI1.Samp.Index0
Number of samples with the
downlink QCI-1 service throughput
ranging within index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729067
L.Thrp.DL.BitRate.QCI1.Samp.Index1
Multi-mode: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of samples with the
downlink QCI-1 service throughput
ranging within index 1
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729068
L.Thrp.DL.BitRate.QCI1.Samp.Index2
Number of samples with the
downlink QCI-1 service throughput
ranging within index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729069
L.Thrp.DL.BitRate.QCI1.Samp.Index3
Number of samples with the
downlink QCI-1 service throughput
ranging within index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729070
L.Thrp.DL.BitRate.QCI1.Samp.Index4
Number of samples with the
downlink QCI-1 service throughput
ranging within index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729071
L.Thrp.DL.BitRate.QCI1.Samp.Index5
Number of samples with the
downlink QCI-1 service throughput
ranging within index 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729072
L.Thrp.DL.BitRate.QCI1.Samp.Index6
Number of samples with the
downlink QCI-1 service throughput
ranging within index 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729073
L.Thrp.DL.BitRate.QCI1.Samp.Index7
Number of samples with the
downlink QCI-1 service throughput
ranging within index 7
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729074
L.Thrp.DL.BitRate.QCI1.Samp.Index8
Number of samples with the
downlink QCI-1 service throughput
ranging within index 8
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729075
L.Thrp.DL.BitRate.QCI1.Samp.Index9
Number of samples with the
downlink QCI-1 service throughput
ranging within index 9
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729076
L.Thrp.DL.BitRate.QCI2.Samp.Index0
Number of samples with the
downlink QCI-2 service throughput
ranging within index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526729077
L.Thrp.DL.BitRate.QCI2.Samp.Index1
Number of samples with the
downlink QCI-2 service throughput
ranging within index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729078
L.Thrp.DL.BitRate.QCI2.Samp.Index2
Number of samples with the
downlink QCI-2 service throughput
ranging within index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729079
L.Thrp.DL.BitRate.QCI2.Samp.Index3
Number of samples with the
downlink QCI-2 service throughput
ranging within index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729080
L.Thrp.DL.BitRate.QCI2.Samp.Index4
Number of samples with the
downlink QCI-2 service throughput
ranging within index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729081
L.Thrp.DL.BitRate.QCI2.Samp.Index5
Number of samples with the
downlink QCI-2 service throughput
ranging within index 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729082
L.Thrp.DL.BitRate.QCI2.Samp.Index6
Number of samples with the
downlink QCI-2 service throughput
ranging within index 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729083
L.Thrp.DL.BitRate.QCI2.Samp.Index7
Number of samples with the
downlink QCI-2 service throughput
ranging within index 7
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729084
L.Thrp.DL.BitRate.QCI2.Samp.Index8
Number of samples with the
downlink QCI-2 service throughput
ranging within index 8
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729085
L.Thrp.DL.BitRate.QCI2.Samp.Index9
Number of samples with the
downlink QCI-2 service throughput
ranging within index 9
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729086
L.Thrp.DL.BitRate.QCI3.Samp.Index0
Multi-mode: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of samples with the
downlink QCI-3 service throughput
ranging within index 0
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729087
L.Thrp.DL.BitRate.QCI3.Samp.Index1
Number of samples with the
downlink QCI-3 service throughput
ranging within index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729088
L.Thrp.DL.BitRate.QCI3.Samp.Index2
Number of samples with the
downlink QCI-3 service throughput
ranging within index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729089
L.Thrp.DL.BitRate.QCI3.Samp.Index3
Number of samples with the
downlink QCI-3 service throughput
ranging within index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729090
L.Thrp.DL.BitRate.QCI3.Samp.Index4
Number of samples with the
downlink QCI-3 service throughput
ranging within index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729091
L.Thrp.DL.BitRate.QCI3.Samp.Index5
Number of samples with the
downlink QCI-3 service throughput
ranging within index 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729092
L.Thrp.DL.BitRate.QCI3.Samp.Index6
Number of samples with the
downlink QCI-3 service throughput
ranging within index 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729093
L.Thrp.DL.BitRate.QCI3.Samp.Index7
Number of samples with the
downlink QCI-3 service throughput
ranging within index 7
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729094
L.Thrp.DL.BitRate.QCI3.Samp.Index8
Number of samples with the
downlink QCI-3 service throughput
ranging within index 8
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729095
L.Thrp.DL.BitRate.QCI3.Samp.Index9
Number of samples with the
downlink QCI-3 service throughput
ranging within index 9
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526729096
L.Thrp.DL.BitRate.QCI4.Samp.Index0
Number of samples with the
downlink QCI-4 service throughput
ranging within index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729097
L.Thrp.DL.BitRate.QCI4.Samp.Index1
Number of samples with the
downlink QCI-4 service throughput
ranging within index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729098
L.Thrp.DL.BitRate.QCI4.Samp.Index2
Number of samples with the
downlink QCI-4 service throughput
ranging within index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729099
L.Thrp.DL.BitRate.QCI4.Samp.Index3
Number of samples with the
downlink QCI-4 service throughput
ranging within index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729100
L.Thrp.DL.BitRate.QCI4.Samp.Index4
Number of samples with the
downlink QCI-4 service throughput
ranging within index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729101
L.Thrp.DL.BitRate.QCI4.Samp.Index5
Number of samples with the
downlink QCI-4 service throughput
ranging within index 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729102
L.Thrp.DL.BitRate.QCI4.Samp.Index6
Number of samples with the
downlink QCI-4 service throughput
ranging within index 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729103
L.Thrp.DL.BitRate.QCI4.Samp.Index7
Number of samples with the
downlink QCI-4 service throughput
ranging within index 7
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729104
L.Thrp.DL.BitRate.QCI4.Samp.Index8
Number of samples with the
downlink QCI-4 service throughput
ranging within index 8
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729105
L.Thrp.DL.BitRate.QCI4.Samp.Index9
Multi-mode: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of samples with the
downlink QCI-4 service throughput
ranging within index 9
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729106
L.Thrp.DL.BitRate.QCI5.Samp.Index0
Number of samples with the
downlink QCI-5 service throughput
ranging within index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729107
L.Thrp.DL.BitRate.QCI5.Samp.Index1
Number of samples with the
downlink QCI-5 service throughput
ranging within index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729108
L.Thrp.DL.BitRate.QCI5.Samp.Index2
Number of samples with the
downlink QCI-5 service throughput
ranging within index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729109
L.Thrp.DL.BitRate.QCI5.Samp.Index3
Number of samples with the
downlink QCI-5 service throughput
ranging within index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729110
L.Thrp.DL.BitRate.QCI5.Samp.Index4
Number of samples with the
downlink QCI-5 service throughput
ranging within index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729111
L.Thrp.DL.BitRate.QCI5.Samp.Index5
Number of samples with the
downlink QCI-5 service throughput
ranging within index 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729112
L.Thrp.DL.BitRate.QCI5.Samp.Index6
Number of samples with the
downlink QCI-5 service throughput
ranging within index 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729113
L.Thrp.DL.BitRate.QCI5.Samp.Index7
Number of samples with the
downlink QCI-5 service throughput
ranging within index 7
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729114
L.Thrp.DL.BitRate.QCI5.Samp.Index8
Number of samples with the
downlink QCI-5 service throughput
ranging within index 8
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526729115
L.Thrp.DL.BitRate.QCI5.Samp.Index9
Number of samples with the
downlink QCI-5 service throughput
ranging within index 9
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729116
L.Thrp.DL.BitRate.QCI6.Samp.Index0
Number of samples with the
downlink QCI-6 service throughput
ranging within index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729117
L.Thrp.DL.BitRate.QCI6.Samp.Index1
Number of samples with the
downlink QCI-6 service throughput
ranging within index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729118
L.Thrp.DL.BitRate.QCI6.Samp.Index2
Number of samples with the
downlink QCI-6 service throughput
ranging within index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729119
L.Thrp.DL.BitRate.QCI6.Samp.Index3
Number of samples with the
downlink QCI-6 service throughput
ranging within index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729120
L.Thrp.DL.BitRate.QCI6.Samp.Index4
Number of samples with the
downlink QCI-6 service throughput
ranging within index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729121
L.Thrp.DL.BitRate.QCI6.Samp.Index5
Number of samples with the
downlink QCI-6 service throughput
ranging within index 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729122
L.Thrp.DL.BitRate.QCI6.Samp.Index6
Number of samples with the
downlink QCI-6 service throughput
ranging within index 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729123
L.Thrp.DL.BitRate.QCI6.Samp.Index7
Number of samples with the
downlink QCI-6 service throughput
ranging within index 7
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729124
L.Thrp.DL.BitRate.QCI6.Samp.Index8
Multi-mode: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of samples with the
downlink QCI-6 service throughput
ranging within index 8
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729125
L.Thrp.DL.BitRate.QCI6.Samp.Index9
Number of samples with the
downlink QCI-6 service throughput
ranging within index 9
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729126
L.Thrp.DL.BitRate.QCI7.Samp.Index0
Number of samples with the
downlink QCI-7 service throughput
ranging within index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729127
L.Thrp.DL.BitRate.QCI7.Samp.Index1
Number of samples with the
downlink QCI-7 service throughput
ranging within index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729128
L.Thrp.DL.BitRate.QCI7.Samp.Index2
Number of samples with the
downlink QCI-7 service throughput
ranging within index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729129
L.Thrp.DL.BitRate.QCI7.Samp.Index3
Number of samples with the
downlink QCI-7 service throughput
ranging within index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729130
L.Thrp.DL.BitRate.QCI7.Samp.Index4
Number of samples with the
downlink QCI-7 service throughput
ranging within index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729131
L.Thrp.DL.BitRate.QCI7.Samp.Index5
Number of samples with the
downlink QCI-7 service throughput
ranging within index 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729132
L.Thrp.DL.BitRate.QCI7.Samp.Index6
Number of samples with the
downlink QCI-7 service throughput
ranging within index 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729133
L.Thrp.DL.BitRate.QCI7.Samp.Index7
Number of samples with the
downlink QCI-7 service throughput
ranging within index 7
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526729134
L.Thrp.DL.BitRate.QCI7.Samp.Index8
Number of samples with the
downlink QCI-7 service throughput
ranging within index 8
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729135
L.Thrp.DL.BitRate.QCI7.Samp.Index9
Number of samples with the
downlink QCI-7 service throughput
ranging within index 9
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729136
L.Thrp.DL.BitRate.QCI8.Samp.Index0
Number of samples with the
downlink QCI-8 service throughput
ranging within index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729137
L.Thrp.DL.BitRate.QCI8.Samp.Index1
Number of samples with the
downlink QCI-8 service throughput
ranging within index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729138
L.Thrp.DL.BitRate.QCI8.Samp.Index2
Number of samples with the
downlink QCI-8 service throughput
ranging within index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729139
L.Thrp.DL.BitRate.QCI8.Samp.Index3
Number of samples with the
downlink QCI-8 service throughput
ranging within index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729140
L.Thrp.DL.BitRate.QCI8.Samp.Index4
Number of samples with the
downlink QCI-8 service throughput
ranging within index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729141
L.Thrp.DL.BitRate.QCI8.Samp.Index5
Number of samples with the
downlink QCI-8 service throughput
ranging within index 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729142
L.Thrp.DL.BitRate.QCI8.Samp.Index6
Number of samples with the
downlink QCI-8 service throughput
ranging within index 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729143
L.Thrp.DL.BitRate.QCI8.Samp.Index7
Multi-mode: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of samples with the
downlink QCI-8 service throughput
ranging within index 7
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729144
L.Thrp.DL.BitRate.QCI8.Samp.Index8
Number of samples with the
downlink QCI-8 service throughput
ranging within index 8
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729145
L.Thrp.DL.BitRate.QCI8.Samp.Index9
Number of samples with the
downlink QCI-8 service throughput
ranging within index 9
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729146
L.Thrp.DL.BitRate.QCI9.Samp.Index0
Number of samples with the
downlink QCI-9 service throughput
ranging within index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729147
L.Thrp.DL.BitRate.QCI9.Samp.Index1
Number of samples with the
downlink QCI-9 service throughput
ranging within index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729148
L.Thrp.DL.BitRate.QCI9.Samp.Index2
Number of samples with the
downlink QCI-9 service throughput
ranging within index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729149
L.Thrp.DL.BitRate.QCI9.Samp.Index3
Number of samples with the
downlink QCI-9 service throughput
ranging within index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729150
L.Thrp.DL.BitRate.QCI9.Samp.Index4
Number of samples with the
downlink QCI-9 service throughput
ranging within index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729151
L.Thrp.DL.BitRate.QCI9.Samp.Index5
Number of samples with the
downlink QCI-9 service throughput
ranging within index 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729152
L.Thrp.DL.BitRate.QCI9.Samp.Index6
Number of samples with the
downlink QCI-9 service throughput
ranging within index 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526729153
L.Thrp.DL.BitRate.QCI9.Samp.Index7
Number of samples with the
downlink QCI-9 service throughput
ranging within index 7
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729154
L.Thrp.DL.BitRate.QCI9.Samp.Index8
Number of samples with the
downlink QCI-9 service throughput
ranging within index 8
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729155
L.Thrp.DL.BitRate.QCI9.Samp.Index9
Number of samples with the
downlink QCI-9 service throughput
ranging within index 9
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729156
L.Thrp.DL.BitRate.Samp.Index0.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink throughput ranging GSM: None
within index 0
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729157
L.Thrp.DL.BitRate.Samp.Index1.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink throughput ranging GSM: None
within index 1
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729158
L.Thrp.DL.BitRate.Samp.Index2.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink throughput ranging GSM: None
within index 2
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729159
L.Thrp.DL.BitRate.Samp.Index3.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink throughput ranging GSM: None
within index 3
UMTS: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729160
L.Thrp.DL.BitRate.Samp.Index4.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink throughput ranging GSM: None
within index 4
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729161
L.Thrp.DL.BitRate.Samp.Index5.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink throughput ranging GSM: None
within index 5
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729162
L.Thrp.DL.BitRate.Samp.Index6.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink throughput ranging GSM: None
within index 6
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729163
L.Thrp.DL.BitRate.Samp.Index7.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink throughput ranging GSM: None
within index 7
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729164
L.Thrp.DL.BitRate.Samp.Index8.PLMN
Multi-mode: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of operator-specific samples GSM: None
with the downlink throughput ranging UMTS: None
within index 8
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729165
L.Thrp.DL.BitRate.Samp.Index9.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink throughput ranging GSM: None
within index 9
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729166
L.Thrp.DL.BitRate.QCI1.Samp.Index0.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-1 service
GSM: None
throughput ranging within index 0
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729167
L.Thrp.DL.BitRate.QCI1.Samp.Index1.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-1 service
GSM: None
throughput ranging within index 1
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729168
L.Thrp.DL.BitRate.QCI1.Samp.Index2.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-1 service
GSM: None
throughput ranging within index 2
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Hybrid RAN Sharing
1526729169
L.Thrp.DL.BitRate.QCI1.Samp.Index3.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-1 service
GSM: None
throughput ranging within index 3
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729170
L.Thrp.DL.BitRate.QCI1.Samp.Index4.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-1 service
GSM: None
throughput ranging within index 4
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729171
L.Thrp.DL.BitRate.QCI1.Samp.Index5.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-1 service
GSM: None
throughput ranging within index 5
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729172
L.Thrp.DL.BitRate.QCI1.Samp.Index6.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-1 service
GSM: None
throughput ranging within index 6
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729173
L.Thrp.DL.BitRate.QCI1.Samp.Index7.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-1 service
GSM: None
throughput ranging within index 7
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Basic Scheduling
Hybrid RAN Sharing
1526729174
L.Thrp.DL.BitRate.QCI1.Samp.Index8.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-1 service
GSM: None
throughput ranging within index 8
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729175
L.Thrp.DL.BitRate.QCI1.Samp.Index9.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-1 service
GSM: None
throughput ranging within index 9
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729176
L.Thrp.DL.BitRate.QCI2.Samp.Index0.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-2 service
GSM: None
throughput ranging within index 0
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729177
L.Thrp.DL.BitRate.QCI2.Samp.Index1.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-2 service
GSM: None
throughput ranging within index 1
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729178
L.Thrp.DL.BitRate.QCI2.Samp.Index2.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-2 service
GSM: None
throughput ranging within index 2
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LOFD-070206
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729179
L.Thrp.DL.BitRate.QCI2.Samp.Index3.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-2 service
GSM: None
throughput ranging within index 3
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729180
L.Thrp.DL.BitRate.QCI2.Samp.Index4.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-2 service
GSM: None
throughput ranging within index 4
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729181
L.Thrp.DL.BitRate.QCI2.Samp.Index5.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-2 service
GSM: None
throughput ranging within index 5
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729182
L.Thrp.DL.BitRate.QCI2.Samp.Index6.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-2 service
GSM: None
throughput ranging within index 6
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729183
L.Thrp.DL.BitRate.QCI2.Samp.Index7.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-2 service
GSM: None
throughput ranging within index 7
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729184
L.Thrp.DL.BitRate.QCI2.Samp.Index8.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-2 service
GSM: None
throughput ranging within index 8
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729185
L.Thrp.DL.BitRate.QCI2.Samp.Index9.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-2 service
GSM: None
throughput ranging within index 9
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729186
L.Thrp.DL.BitRate.QCI3.Samp.Index0.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-3 service
GSM: None
throughput ranging within index 0
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729187
L.Thrp.DL.BitRate.QCI3.Samp.Index1.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-3 service
GSM: None
throughput ranging within index 1
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729188
L.Thrp.DL.BitRate.QCI3.Samp.Index2.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-3 service
GSM: None
throughput ranging within index 2
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729189
L.Thrp.DL.BitRate.QCI3.Samp.Index3.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-3 service
GSM: None
throughput ranging within index 3
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729190
L.Thrp.DL.BitRate.QCI3.Samp.Index4.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-3 service
GSM: None
throughput ranging within index 4
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729191
L.Thrp.DL.BitRate.QCI3.Samp.Index5.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-3 service
GSM: None
throughput ranging within index 5
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729192
L.Thrp.DL.BitRate.QCI3.Samp.Index6.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-3 service
GSM: None
throughput ranging within index 6
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729193
L.Thrp.DL.BitRate.QCI3.Samp.Index7.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-3 service
GSM: None
throughput ranging within index 7
UMTS: None
LTE: LBFD-002008
LOFD-001036
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729194
L.Thrp.DL.BitRate.QCI3.Samp.Index8.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-3 service
GSM: None
throughput ranging within index 8
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729195
L.Thrp.DL.BitRate.QCI3.Samp.Index9.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-3 service
GSM: None
throughput ranging within index 9
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729196
L.Thrp.DL.BitRate.QCI4.Samp.Index0.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-4 service
GSM: None
throughput ranging within index 0
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729197
L.Thrp.DL.BitRate.QCI4.Samp.Index1.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-4 service
GSM: None
throughput ranging within index 1
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729198
L.Thrp.DL.BitRate.QCI4.Samp.Index2.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-4 service
GSM: None
throughput ranging within index 2
UMTS: None
LTE: LBFD-002008
Radio Bearer
Management
RAN Sharing with
Common Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729199
L.Thrp.DL.BitRate.QCI4.Samp.Index3.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-4 service
GSM: None
throughput ranging within index 3
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729200
L.Thrp.DL.BitRate.QCI4.Samp.Index4.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-4 service
GSM: None
throughput ranging within index 4
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729201
L.Thrp.DL.BitRate.QCI4.Samp.Index5.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-4 service
GSM: None
throughput ranging within index 5
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729202
L.Thrp.DL.BitRate.QCI4.Samp.Index6.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-4 service
GSM: None
throughput ranging within index 6
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729203
L.Thrp.DL.BitRate.QCI4.Samp.Index7.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-4 service
GSM: None
throughput ranging within index 7
UMTS: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729204
L.Thrp.DL.BitRate.QCI4.Samp.Index8.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-4 service
GSM: None
throughput ranging within index 8
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729205
L.Thrp.DL.BitRate.QCI4.Samp.Index9.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-4 service
GSM: None
throughput ranging within index 9
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729206
L.Thrp.DL.BitRate.QCI5.Samp.Index0.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-5 service
GSM: None
throughput ranging within index 0
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729207
L.Thrp.DL.BitRate.QCI5.Samp.Index1.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-5 service
GSM: None
throughput ranging within index 1
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729208
L.Thrp.DL.BitRate.QCI5.Samp.Index2.PLMN
Multi-mode: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of operator-specific samples GSM: None
with the downlink QCI-5 service
UMTS: None
throughput ranging within index 2
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729209
L.Thrp.DL.BitRate.QCI5.Samp.Index3.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-5 service
GSM: None
throughput ranging within index 3
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729210
L.Thrp.DL.BitRate.QCI5.Samp.Index4.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-5 service
GSM: None
throughput ranging within index 4
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729211
L.Thrp.DL.BitRate.QCI5.Samp.Index5.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-5 service
GSM: None
throughput ranging within index 5
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729212
L.Thrp.DL.BitRate.QCI5.Samp.Index6.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-5 service
GSM: None
throughput ranging within index 6
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Hybrid RAN Sharing
1526729213
L.Thrp.DL.BitRate.QCI5.Samp.Index7.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-5 service
GSM: None
throughput ranging within index 7
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729214
L.Thrp.DL.BitRate.QCI5.Samp.Index8.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-5 service
GSM: None
throughput ranging within index 8
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729215
L.Thrp.DL.BitRate.QCI5.Samp.Index9.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-5 service
GSM: None
throughput ranging within index 9
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729216
L.Thrp.DL.BitRate.QCI6.Samp.Index0.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-6 service
GSM: None
throughput ranging within index 0
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729217
L.Thrp.DL.BitRate.QCI6.Samp.Index1.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-6 service
GSM: None
throughput ranging within index 1
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Basic Scheduling
Hybrid RAN Sharing
1526729218
L.Thrp.DL.BitRate.QCI6.Samp.Index2.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-6 service
GSM: None
throughput ranging within index 2
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729219
L.Thrp.DL.BitRate.QCI6.Samp.Index3.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-6 service
GSM: None
throughput ranging within index 3
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729220
L.Thrp.DL.BitRate.QCI6.Samp.Index4.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-6 service
GSM: None
throughput ranging within index 4
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729221
L.Thrp.DL.BitRate.QCI6.Samp.Index5.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-6 service
GSM: None
throughput ranging within index 5
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729222
L.Thrp.DL.BitRate.QCI6.Samp.Index6.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-6 service
GSM: None
throughput ranging within index 6
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LOFD-070206
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729223
L.Thrp.DL.BitRate.QCI6.Samp.Index7.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-6 service
GSM: None
throughput ranging within index 7
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729224
L.Thrp.DL.BitRate.QCI6.Samp.Index8.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-6 service
GSM: None
throughput ranging within index 8
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729225
L.Thrp.DL.BitRate.QCI6.Samp.Index9.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-6 service
GSM: None
throughput ranging within index 9
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729226
L.Thrp.DL.BitRate.QCI7.Samp.Index0.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-7 service
GSM: None
throughput ranging within index 0
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729227
L.Thrp.DL.BitRate.QCI7.Samp.Index1.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-7 service
GSM: None
throughput ranging within index 1
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729228
L.Thrp.DL.BitRate.QCI7.Samp.Index2.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-7 service
GSM: None
throughput ranging within index 2
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729229
L.Thrp.DL.BitRate.QCI7.Samp.Index3.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-7 service
GSM: None
throughput ranging within index 3
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729230
L.Thrp.DL.BitRate.QCI7.Samp.Index4.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-7 service
GSM: None
throughput ranging within index 4
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729231
L.Thrp.DL.BitRate.QCI7.Samp.Index5.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-7 service
GSM: None
throughput ranging within index 5
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729232
L.Thrp.DL.BitRate.QCI7.Samp.Index6.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-7 service
GSM: None
throughput ranging within index 6
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729233
L.Thrp.DL.BitRate.QCI7.Samp.Index7.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-7 service
GSM: None
throughput ranging within index 7
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729234
L.Thrp.DL.BitRate.QCI7.Samp.Index8.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-7 service
GSM: None
throughput ranging within index 8
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729235
L.Thrp.DL.BitRate.QCI7.Samp.Index9.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-7 service
GSM: None
throughput ranging within index 9
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729236
L.Thrp.DL.BitRate.QCI8.Samp.Index0.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-8 service
GSM: None
throughput ranging within index 0
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729237
L.Thrp.DL.BitRate.QCI8.Samp.Index1.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-8 service
GSM: None
throughput ranging within index 1
UMTS: None
LTE: LBFD-002008
LOFD-001036
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729238
L.Thrp.DL.BitRate.QCI8.Samp.Index2.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-8 service
GSM: None
throughput ranging within index 2
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729239
L.Thrp.DL.BitRate.QCI8.Samp.Index3.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-8 service
GSM: None
throughput ranging within index 3
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729240
L.Thrp.DL.BitRate.QCI8.Samp.Index4.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-8 service
GSM: None
throughput ranging within index 4
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729241
L.Thrp.DL.BitRate.QCI8.Samp.Index5.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-8 service
GSM: None
throughput ranging within index 5
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729242
L.Thrp.DL.BitRate.QCI8.Samp.Index6.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-8 service
GSM: None
throughput ranging within index 6
UMTS: None
LTE: LBFD-002008
Radio Bearer
Management
RAN Sharing with
Common Carrier
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729243
L.Thrp.DL.BitRate.QCI8.Samp.Index7.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-8 service
GSM: None
throughput ranging within index 7
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729244
L.Thrp.DL.BitRate.QCI8.Samp.Index8.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-8 service
GSM: None
throughput ranging within index 8
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729245
L.Thrp.DL.BitRate.QCI8.Samp.Index9.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-8 service
GSM: None
throughput ranging within index 9
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729246
L.Thrp.DL.BitRate.QCI9.Samp.Index0.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-9 service
GSM: None
throughput ranging within index 0
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729247
L.Thrp.DL.BitRate.QCI9.Samp.Index1.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-9 service
GSM: None
throughput ranging within index 1
UMTS: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729248
L.Thrp.DL.BitRate.QCI9.Samp.Index2.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-9 service
GSM: None
throughput ranging within index 2
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729249
L.Thrp.DL.BitRate.QCI9.Samp.Index3.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-9 service
GSM: None
throughput ranging within index 3
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729250
L.Thrp.DL.BitRate.QCI9.Samp.Index4.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-9 service
GSM: None
throughput ranging within index 4
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729251
L.Thrp.DL.BitRate.QCI9.Samp.Index5.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-9 service
GSM: None
throughput ranging within index 5
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729252
L.Thrp.DL.BitRate.QCI9.Samp.Index6.PLMN
Multi-mode: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of operator-specific samples GSM: None
with the downlink QCI-9 service
UMTS: None
throughput ranging within index 6
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729253
L.Thrp.DL.BitRate.QCI9.Samp.Index7.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-9 service
GSM: None
throughput ranging within index 7
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729254
L.Thrp.DL.BitRate.QCI9.Samp.Index8.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-9 service
GSM: None
throughput ranging within index 8
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729255
L.Thrp.DL.BitRate.QCI9.Samp.Index9.PLMN
Number of operator-specific samples Multi-mode: None
with the downlink QCI-9 service
GSM: None
throughput ranging within index 9
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729256
L.Thrp.eNodeB.bits.DL.Max
Maximum downlink traffic volume for Multi-mode: None
PDCP SDUs in an eNodeB
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729257
L.Thrp.eNodeB.bits.UL.Max
Maximum uplink traffic volume for
PDCP SDUs in an eNodeB
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002025
1526729258
L.Thrp.eNodeB.bits.Max
Maximum sum of the uplink and
downlink traffic volume for PDCP
SDUs in an eNodeB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729319
L.ChMeas.CQI.DL.SingleCW.Periodic.0
Number of periodic wideband CQI
reports with the value of 0 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729320
L.ChMeas.CQI.DL.SingleCW.Periodic.1
Number of periodic wideband CQI
reports with the value of 1 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729321
L.ChMeas.CQI.DL.SingleCW.Periodic.2
Number of periodic wideband CQI
reports with the value of 2 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729322
L.ChMeas.CQI.DL.SingleCW.Periodic.3
Number of periodic wideband CQI
reports with the value of 3 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729323
L.ChMeas.CQI.DL.SingleCW.Periodic.4
Number of periodic wideband CQI
reports with the value of 4 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729324
L.ChMeas.CQI.DL.SingleCW.Periodic.5
Number of periodic wideband CQI
reports with the value of 5 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729325
L.ChMeas.CQI.DL.SingleCW.Periodic.6
Number of periodic wideband CQI
reports with the value of 6 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729326
L.ChMeas.CQI.DL.SingleCW.Periodic.7
Number of periodic wideband CQI
reports with the value of 7 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729327
L.ChMeas.CQI.DL.SingleCW.Periodic.8
Number of periodic wideband CQI
reports with the value of 8 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729328
L.ChMeas.CQI.DL.SingleCW.Periodic.9
Number of periodic wideband CQI
reports with the value of 9 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
1526729329
L.ChMeas.CQI.DL.SingleCW.Periodic.10
Number of periodic wideband CQI
Multi-mode: None
reports with the value of 10 in single- GSM: None
codeword transmission
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729330
L.ChMeas.CQI.DL.SingleCW.Periodic.11
Number of periodic wideband CQI
Multi-mode: None
reports with the value of 11 in single- GSM: None
codeword transmission
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729331
L.ChMeas.CQI.DL.SingleCW.Periodic.12
Number of periodic wideband CQI
Multi-mode: None
reports with the value of 12 in single- GSM: None
codeword transmission
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729332
L.ChMeas.CQI.DL.SingleCW.Periodic.13
Number of periodic wideband CQI
Multi-mode: None
reports with the value of 13 in single- GSM: None
codeword transmission
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729333
L.ChMeas.CQI.DL.SingleCW.Periodic.14
Number of periodic wideband CQI
Multi-mode: None
reports with the value of 14 in single- GSM: None
codeword transmission
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729334
L.ChMeas.CQI.DL.SingleCW.Periodic.15
Number of periodic wideband CQI
Multi-mode: None
reports with the value of 15 in single- GSM: None
codeword transmission
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729335
L.ChMeas.CQI.DL.SingleCW.Aperiodic.0
Number of aperiodic wideband CQI
reports with the value of 0 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729336
L.ChMeas.CQI.DL.SingleCW.Aperiodic.1
Number of aperiodic wideband CQI
reports with the value of 1 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729337
L.ChMeas.CQI.DL.SingleCW.Aperiodic.2
Number of aperiodic wideband CQI
reports with the value of 2 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729338
L.ChMeas.CQI.DL.SingleCW.Aperiodic.3
Number of aperiodic wideband CQI
reports with the value of 3 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729339
L.ChMeas.CQI.DL.SingleCW.Aperiodic.4
Number of aperiodic wideband CQI
reports with the value of 4 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729340
L.ChMeas.CQI.DL.SingleCW.Aperiodic.5
Number of aperiodic wideband CQI
reports with the value of 5 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729341
L.ChMeas.CQI.DL.SingleCW.Aperiodic.6
Number of aperiodic wideband CQI
reports with the value of 6 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729342
L.ChMeas.CQI.DL.SingleCW.Aperiodic.7
Number of aperiodic wideband CQI
reports with the value of 7 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729343
L.ChMeas.CQI.DL.SingleCW.Aperiodic.8
Number of aperiodic wideband CQI
reports with the value of 8 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729344
L.ChMeas.CQI.DL.SingleCW.Aperiodic.9
Number of aperiodic wideband CQI
reports with the value of 9 in singlecodeword transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729345
L.ChMeas.CQI.DL.SingleCW.Aperiodic.10
Number of aperiodic wideband CQI Multi-mode: None
reports with the value of 10 in single- GSM: None
codeword transmission
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729346
L.ChMeas.CQI.DL.SingleCW.Aperiodic.11
Number of aperiodic wideband CQI Multi-mode: None
reports with the value of 11 in single- GSM: None
codeword transmission
UMTS: None
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729347
L.ChMeas.CQI.DL.SingleCW.Aperiodic.12
Number of aperiodic wideband CQI Multi-mode: None
reports with the value of 12 in single- GSM: None
codeword transmission
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729348
L.ChMeas.CQI.DL.SingleCW.Aperiodic.13
Number of aperiodic wideband CQI Multi-mode: None
reports with the value of 13 in single- GSM: None
codeword transmission
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729349
L.ChMeas.CQI.DL.SingleCW.Aperiodic.14
Number of aperiodic wideband CQI Multi-mode: None
reports with the value of 14 in single- GSM: None
codeword transmission
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729350
L.ChMeas.CQI.DL.SingleCW.Aperiodic.15
Number of aperiodic wideband CQI Multi-mode: None
reports with the value of 15 in single- GSM: None
codeword transmission
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729351
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.0
Number of periodic wideband CQI
reports with the value of 0 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729352
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.1
Number of periodic wideband CQI
reports with the value of 1 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729353
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.2
Number of periodic wideband CQI
reports with the value of 2 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729354
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.3
Number of periodic wideband CQI
reports with the value of 3 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729355
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.4
Number of periodic wideband CQI
reports with the value of 4 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
1526729356
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.5
Number of periodic wideband CQI
reports with the value of 5 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729357
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.6
Number of periodic wideband CQI
reports with the value of 6 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729358
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.7
Number of periodic wideband CQI
reports with the value of 7 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729359
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.8
Number of periodic wideband CQI
reports with the value of 8 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729360
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.9
Number of periodic wideband CQI
reports with the value of 9 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729361
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.10
Number of periodic wideband CQI
reports with the value of 10 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729362
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.11
Number of periodic wideband CQI
reports with the value of 11 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729363
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.12
Number of periodic wideband CQI
reports with the value of 12 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729364
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.13
Number of periodic wideband CQI
reports with the value of 13 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729365
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.14
Number of periodic wideband CQI
reports with the value of 14 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729366
L.ChMeas.CQI.DL.DualCW.Code0.Periodic.15
Number of periodic wideband CQI
reports with the value of 15 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
1526729367
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.0
Number of aperiodic wideband CQI
reports with the value of 0 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729368
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.1
Number of aperiodic wideband CQI
reports with the value of 1 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729369
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.2
Number of aperiodic wideband CQI
reports with the value of 2 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729370
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.3
Number of aperiodic wideband CQI
reports with the value of 3 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729371
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.4
Number of aperiodic wideband CQI
reports with the value of 4 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729372
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.5
Number of aperiodic wideband CQI
reports with the value of 5 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729373
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.6
Number of aperiodic wideband CQI
reports with the value of 6 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729374
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.7
Number of aperiodic wideband CQI
reports with the value of 7 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002031
Support of aperiodic CQI
reports
1526729375
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.8
Number of aperiodic wideband CQI
reports with the value of 8 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729376
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.9
Number of aperiodic wideband CQI
reports with the value of 9 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729377
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.10
Number of aperiodic wideband CQI
reports with the value of 10 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729378
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.11
Number of aperiodic wideband CQI
reports with the value of 11 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729379
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.12
Number of aperiodic wideband CQI
reports with the value of 12 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729380
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.13
Number of aperiodic wideband CQI
reports with the value of 13 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729381
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.14
Number of aperiodic wideband CQI
reports with the value of 14 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729382
L.ChMeas.CQI.DL.DualCW.Code0.Aperiodic.15
Number of aperiodic wideband CQI
reports with the value of 15 for
codeword 0 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002031
Support of aperiodic CQI
reports
1526729383
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.0
Number of periodic wideband CQI
reports with the value of 0 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729384
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.1
Number of periodic wideband CQI
reports with the value of 1 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729385
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.2
Number of periodic wideband CQI
reports with the value of 2 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729386
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.3
Number of periodic wideband CQI
reports with the value of 3 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729387
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.4
Number of periodic wideband CQI
reports with the value of 4 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729388
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.5
Number of periodic wideband CQI
reports with the value of 5 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729389
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.6
Number of periodic wideband CQI
reports with the value of 6 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729390
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.7
Number of periodic wideband CQI
reports with the value of 7 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729391
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.8
Number of periodic wideband CQI
reports with the value of 8 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729392
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.9
Number of periodic wideband CQI
reports with the value of 9 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729393
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.10
Number of periodic wideband CQI
reports with the value of 10 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
1526729394
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.11
Number of periodic wideband CQI
reports with the value of 11 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729395
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.12
Number of periodic wideband CQI
reports with the value of 12 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729396
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.13
Number of periodic wideband CQI
reports with the value of 13 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729397
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.14
Number of periodic wideband CQI
reports with the value of 14 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729398
L.ChMeas.CQI.DL.DualCW.Code1.Periodic.15
Number of periodic wideband CQI
reports with the value of 15 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
TDLBFD-002016
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Dynamic Downlink
Power Allocation
1526729399
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.0
Number of aperiodic wideband CQI
reports with the value of 0 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729400
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.1
Number of aperiodic wideband CQI
reports with the value of 1 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729401
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.2
Number of aperiodic wideband CQI
reports with the value of 2 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729402
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.3
Number of aperiodic wideband CQI
reports with the value of 3 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729403
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.4
Multi-mode: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of aperiodic wideband CQI
reports with the value of 4 for
codeword 1 in dual-codeword
transmission
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729404
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.5
Number of aperiodic wideband CQI
reports with the value of 5 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729405
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.6
Number of aperiodic wideband CQI
reports with the value of 6 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729406
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.7
Number of aperiodic wideband CQI
reports with the value of 7 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729407
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.8
Number of aperiodic wideband CQI
reports with the value of 8 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729408
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.9
Number of aperiodic wideband CQI
reports with the value of 9 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729409
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.10
Number of aperiodic wideband CQI
reports with the value of 10 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729410
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.11
Number of aperiodic wideband CQI
reports with the value of 11 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
1526729411
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.12
Number of aperiodic wideband CQI
reports with the value of 12 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729412
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.13
Number of aperiodic wideband CQI
reports with the value of 13 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729413
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.14
Number of aperiodic wideband CQI
reports with the value of 14 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729414
L.ChMeas.CQI.DL.DualCW.Code1.Aperiodic.15
Number of aperiodic wideband CQI
reports with the value of 15 for
codeword 1 in dual-codeword
transmission
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-00101502
LBFD-002031
TDLBFD-002016
TDLBFD-002031
Dynamic Downlink
Power Allocation
Dynamic Scheduling
Support of aperiodic CQI
reports
Dynamic Downlink
Power Allocation
Support of aperiodic CQI
reports
1526729415
L.Thrp.bits.UE.UL.SmallPkt
Uplink traffic volume of PDCP PDUs Multi-mode: None
scheduled for small packets
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729416
L.Thrp.Time.UE.UL.RmvSmallPkt
Uplink data transmission duration
except that for small packets
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729417
L.Thrp.bits.UE.UL.SmallPkt.PLMN
Uplink traffic volume of PDCP PDUs Multi-mode: None
scheduled for small packets for a
GSM: None
specific operator
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729418
L.Thrp.Time.UE.UL.RmvSmallPkt.PLMN
Uplink data transmission duration
except that for small packets for a
specific operator
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729435
L.Thrp.UL.BitRate.Samp.Index0
Number of samples with the uplink
throughput ranging within index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729436
L.Thrp.UL.BitRate.Samp.Index1
Number of samples with the uplink
throughput ranging within index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729437
L.Thrp.UL.BitRate.Samp.Index2
Number of samples with the uplink
throughput ranging within index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729438
L.Thrp.UL.BitRate.Samp.Index3
Number of samples with the uplink
throughput ranging within index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729439
L.Thrp.UL.BitRate.Samp.Index4
Number of samples with the uplink
throughput ranging within index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729440
L.Thrp.UL.BitRate.Samp.Index5
Number of samples with the uplink
throughput ranging within index 5
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729441
L.Thrp.UL.BitRate.Samp.Index6
Number of samples with the uplink
throughput ranging within index 6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729442
L.Thrp.UL.BitRate.Samp.Index7
Number of samples with the uplink
throughput ranging within index 7
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729443
L.Thrp.UL.BitRate.Samp.Index8
Number of samples with the uplink
throughput ranging within index 8
Multi-mode: None
GSM: None
UMTS: None
Radio Bearer
Management
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526729444
L.Thrp.UL.BitRate.Samp.Index9
Number of samples with the uplink
throughput ranging within index 9
1526729445
L.Thrp.UL.BitRate.Samp.Index0.PLMN
Number of operator-specific samples Multi-mode: None
with the uplink throughput ranging
GSM: None
within index 0
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729446
L.Thrp.UL.BitRate.Samp.Index1.PLMN
Number of operator-specific samples Multi-mode: None
with the uplink throughput ranging
GSM: None
within index 1
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729447
L.Thrp.UL.BitRate.Samp.Index2.PLMN
Number of operator-specific samples Multi-mode: None
with the uplink throughput ranging
GSM: None
within index 2
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729448
L.Thrp.UL.BitRate.Samp.Index3.PLMN
Number of operator-specific samples Multi-mode: None
with the uplink throughput ranging
GSM: None
within index 3
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729449
L.Thrp.UL.BitRate.Samp.Index4.PLMN
Multi-mode: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of operator-specific samples GSM: None
with the uplink throughput ranging
UMTS: None
within index 4
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729450
L.Thrp.UL.BitRate.Samp.Index5.PLMN
Number of operator-specific samples Multi-mode: None
with the uplink throughput ranging
GSM: None
within index 5
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729451
L.Thrp.UL.BitRate.Samp.Index6.PLMN
Number of operator-specific samples Multi-mode: None
with the uplink throughput ranging
GSM: None
within index 6
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729452
L.Thrp.UL.BitRate.Samp.Index7.PLMN
Number of operator-specific samples Multi-mode: None
with the uplink throughput ranging
GSM: None
within index 7
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729453
L.Thrp.UL.BitRate.Samp.Index8.PLMN
Number of operator-specific samples Multi-mode: None
with the uplink throughput ranging
GSM: None
within index 8
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Hybrid RAN Sharing
1526729454
L.Thrp.UL.BitRate.Samp.Index9.PLMN
Number of operator-specific samples Multi-mode: None
with the uplink throughput ranging
GSM: None
within index 9
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729466
L.RLC.FirstPacketDelay.NonGBR.Index0
Number of times delay of the first
RLC SDU for a non-GBR bearer
ranges within index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-001027
LAOFD-001001
Active Queue
Management (AQM)
LTE-A Introduction
1526729666
L.Thrp.Time.Cell.DL.HighPrecision.PLMN
Total duration of downlink data
transmission for a specific operator
in a cell (with the sampling period of
1 millisecond)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526729667
L.Thrp.Time.Cell.UL.HighPrecision.PLMN
Total duration of uplink data
transmission for a specific operator
in a cell (with the sampling period of
1 millisecond)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
LOFD-001036
LOFD-001037
LBFD-002025
TDLBFD-002008
TDLOFD-001036
TDLOFD-001037
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Radio Bearer
Management
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Basic Scheduling
Hybrid RAN Sharing
1526730102
L.ChMeas.PRB.DL.SrbUsed.Avg
Average number of PRBs used by
downlink signaling in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LEOFD-111305
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526730103
L.ChMeas.PRB.DL.PagingUsed.Avg
Average number of PRBs used by
paging messages in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LEOFD-111305
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526730113
L.E-RAB.SessionTime.UE.HighPrecision.PLMN
Total duration of UE data
transmission for a specific operator
in a cell (with the precision of 100
ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Hybrid RAN Sharing
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526730114
L.E-RAB.SessionTime.HighPrecision.PLMN
Total duration of data transmission
for a specific operator in a cell (with
the precision of 100 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526730115
L.E-RAB.SessionTime.HighPrecision.PLMN.QCI1
Total duration of data transmission
for services with the QCI of 1 for a
specific operator in a cell (with the
precision of 100 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526730116
L.E-RAB.SessionTime.HighPrecision.PLMN.QCI2
Total duration of data transmission
for services with the QCI of 2 for a
specific operator in a cell (with the
precision of 100 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526730117
L.E-RAB.SessionTime.HighPrecision.PLMN.QCI3
Total duration of data transmission
for services with the QCI of 3 for a
specific operator in a cell (with the
precision of 100 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526730118
L.E-RAB.SessionTime.HighPrecision.PLMN.QCI4
Total duration of data transmission
for services with the QCI of 4 for a
specific operator in a cell (with the
precision of 100 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526730119
L.E-RAB.SessionTime.HighPrecision.PLMN.QCI5
Total duration of data transmission
for services with the QCI of 5 for a
specific operator in a cell (with the
precision of 100 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526730120
L.E-RAB.SessionTime.HighPrecision.PLMN.QCI6
Total duration of data transmission
for services with the QCI of 6 for a
specific operator in a cell (with the
precision of 100 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526730121
L.E-RAB.SessionTime.HighPrecision.PLMN.QCI7
Total duration of data transmission
for services with the QCI of 7 for a
specific operator in a cell (with the
precision of 100 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526730122
L.E-RAB.SessionTime.HighPrecision.PLMN.QCI8
Total duration of data transmission
for services with the QCI of 8 for a
specific operator in a cell (with the
precision of 100 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526730123
L.E-RAB.SessionTime.HighPrecision.PLMN.QCI9
Total duration of data transmission
for services with the QCI of 9 for a
specific operator in a cell (with the
precision of 100 ms)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
LOFD-070206
LOFD-001036
LOFD-001037
TDLOFD-001036
TDLOFD-001037
Basic Scheduling
Hybrid RAN Sharing
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
1526730141
L.ChMeas.RI.Rank1
Number of times rank 1 is reported
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LOFD-001001
LOFD-001003
TDLBFD-002025
TDLOFD-001001
Basic Scheduling
DL 2x2 MIMO
DL 4x2 MIMO
Basic Scheduling
DL 2x2 MIMO
1526730142
L.ChMeas.RI.Rank2
Number of times a UE reports rank 2 Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LOFD-001001
LOFD-001003
TDLBFD-002025
TDLOFD-001001
Basic Scheduling
DL 2x2 MIMO
DL 4x2 MIMO
Basic Scheduling
DL 2x2 MIMO
1526730557
L.ChMeas.PRB.UL.PUSCH.Avail
Number of available PUSCH PRBs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730558
L.Cell.DL.PDSCH.Tti.Num
Number of TTIs on the PDSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730559
L.Cell.UL.PUSCH.Tti.Num
Number of TTIs on the PUSCH
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730563
L.Thrp.bits.UL.PDCP.SDU.QCI.1
Uplink traffic volume for PDCP
SDUs of services with the QCI of 1
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730564
L.Thrp.bits.UL.PDCP.SDU.QCI.2
Uplink traffic volume for PDCP
SDUs of services with the QCI of 2
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730565
L.Thrp.bits.UL.PDCP.SDU.QCI.3
Uplink traffic volume for PDCP
SDUs of services with the QCI of 3
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730566
L.Thrp.bits.UL.PDCP.SDU.QCI.4
Uplink traffic volume for PDCP
SDUs of services with the QCI of 4
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002025
1526730567
L.Thrp.bits.UL.PDCP.SDU.QCI.5
Uplink traffic volume for PDCP
SDUs of services with the QCI of 5
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730568
L.Thrp.bits.UL.PDCP.SDU.QCI.6
Uplink traffic volume for PDCP
SDUs of services with the QCI of 6
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730569
L.Thrp.bits.UL.PDCP.SDU.QCI.7
Uplink traffic volume for PDCP
SDUs of services with the QCI of 7
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730570
L.Thrp.bits.UL.PDCP.SDU.QCI.8
Uplink traffic volume for PDCP
SDUs of services with the QCI of 8
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730571
L.Thrp.bits.UL.PDCP.SDU.QCI.9
Uplink traffic volume for PDCP
SDUs of services with the QCI of 9
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730572
L.Thrp.bits.UL.PDCP.SDU
Total uplink traffic volume for PDCP
SDUs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730573
L.Thrp.bits.DL.PDCP.PDU.QCI.1
Downlink traffic volume for PDCP
PDUs of services with the QCI of 1
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730574
L.Thrp.bits.DL.PDCP.PDU.QCI.2
Downlink traffic volume for PDCP
PDUs of services with the QCI of 2
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730575
L.Thrp.bits.DL.PDCP.PDU.QCI.3
Downlink traffic volume for PDCP
PDUs of services with the QCI of 3
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730576
L.Thrp.bits.DL.PDCP.PDU.QCI.4
Downlink traffic volume for PDCP
PDUs of services with the QCI of 4
in a cell
Multi-mode: None
GSM: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730577
L.Thrp.bits.DL.PDCP.PDU.QCI.5
Downlink traffic volume for PDCP
PDUs of services with the QCI of 5
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730578
L.Thrp.bits.DL.PDCP.PDU.QCI.6
Downlink traffic volume for PDCP
PDUs of services with the QCI of 6
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730579
L.Thrp.bits.DL.PDCP.PDU.QCI.7
Downlink traffic volume for PDCP
PDUs of services with the QCI of 7
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730580
L.Thrp.bits.DL.PDCP.PDU.QCI.8
Downlink traffic volume for PDCP
PDUs of services with the QCI of 8
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730581
L.Thrp.bits.DL.PDCP.PDU.QCI.9
Downlink traffic volume for PDCP
PDUs of services with the QCI of 9
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730582
L.Thrp.bits.DL.PDCP.PDU
Total downlink traffic volume of
PDCP PDUs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730832
L.Traffic.SUNPT.DL.Avg
Average number of scheduled UEs
per TTI in the downlink in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730833
L.Traffic.SUNPT.DL.Max
Maximum number of scheduled UEs Multi-mode: None
per TTI in the downlink in a cell
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730834
L.Traffic.Board.SUNPT.DL.Max
Maximum number of scheduled UEs Multi-mode: None
per TTI in the downlink in cells
GSM: None
served by a baseband processing
UMTS: None
unit
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730835
L.Traffic.Board.SUNPT.ULDL.Max
Maximum total number of scheduled Multi-mode: None
UEs per TTI in the uplink and
GSM: None
downlink in cells served by a
UMTS: None
baseband processing unit
LTE: LBFD-002025
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002025
1526730836
L.Thrp.Time.UE.UL.RmvSpecificTTI
Uplink data transmission duration
Multi-mode: None
except that for specific small packets GSM: None
transmitted in the last TTI
UMTS: None
LTE: LBFD-002025
Basic Scheduling
1526730837
L.Thrp.bits.UE.UL.SpecificTTI
Uplink traffic volume at the PDCP
layer of specific small packets
transmitted in the last TTI
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
Basic Scheduling
1526730838
L.Traffic.SUNPT.UL.Avg
Average number of scheduled UEs
per TTI in the uplink in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730839
L.Traffic.SUNPT.UL.Max
Maximum number of scheduled UEs Multi-mode: None
per TTI in the uplink in a cell
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730840
L.Traffic.SUNPT.ULDL.Max
Maximum total number of scheduled Multi-mode: None
UEs per TTI in the uplink and
GSM: None
downlink in a cell
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730841
L.Traffic.Board.SUNPT.UL.Max
Maximum number of scheduled UEs Multi-mode: None
per TTI in the uplink in cells served
GSM: None
by a baseband processing unit
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730842
L.ChMeas.PUSCH.DmrsTaSch
Number of initial uplink
transmissions of DMRS TA in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730843
L.ChMeas.PUSCH.DmrsTaSch.Retrans
Number of uplink retransmissions of
DMRS TA in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730850
L.ResOpt.SUNPTLimit.Ratio.DL
Ratio of times the number of
scheduled UEs per TTI in the
downlink is limited in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730851
L.ResOpt.SUNPTLimit.PRB.DL
Ratio of remaining downlink PRBs
Multi-mode: None
when the number of scheduled UEs GSM: None
per TTI in the downlink is limited in a UMTS: None
cell
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730852
L.ResOpt.CCELimit.PRB.DL
Ratio of remaining downlink PRBs
Multi-mode: None
when CCE resources are limited in a GSM: None
cell
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730853
L.ResOpt.SUNPTLimit.Ratio.UL
Ratio of times the number of
scheduled UEs per TTI in the uplink
is limited in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730854
L.ResOpt.SUNPTLimit.PRB.UL
Ratio of remaining uplink PRBs
when the number of scheduled UEs
per TTI in the uplink is limited in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
1526730855
L.ResOpt.CCELimit.PRB.UL
Ratio of remaining uplink PRBs
Multi-mode: None
when CCE resources are limited in a GSM: None
cell
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Feature ID
Feature Name
Basic Scheduling
Basic Scheduling
1526730856
L.ResOpt.SUNPTLimit.CCE
Ratio of remaining CCEs when the
Multi-mode: None
number of scheduled UEs per TTI is GSM: None
limited in a cell
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526730872
L.Traffic.Sch.UL.Num
Number of times that UEs are
scheduled in a cell in the uplink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730873
L.Traffic.Sch.DL.Num
Number of times that UEs are
scheduled in a cell in the downlink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730879
L.Traffic.SGW.Rx.SDU.Bytes
Number of bytes of SDUs that a cell
receives from the S-GW
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730880
L.Traffic.SGW.Tx.SDU.Bytes
Number of bytes of SDUs that a cell
sends to the S-GW
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730881
L.Traffic.IntereNB.Transfer.Tx.SDU.Bytes
Number of bytes of SDUs sent to
target cells during inter-eNodeB
handovers
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730882
L.Traffic.IntereNB.Transfer.Rx.SDU.Bytes
Number of bytes of SDUs received
from source cells during intereNodeB handovers
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526730883
L.ChMeas.PRB.DL.DrbUsed.Avg.VoIP
Average number of PRBs used by
DRBs on the PDSCH for downlink
VoIP services
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-070205
LEOFD-111305
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
Virtual 4T4R
1526730884
L.ChMeas.PRB.UL.DrbUsed.Avg.VoIP
Average number of PRBs used by
Multi-mode: None
DRBs on the PUSCH for uplink VoIP GSM: None
services
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-070205
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
1526732697
L.ChMeas.PRB.PUSCH.Util.Samp.Index0
Number of samples with the PUSCH Multi-mode: None
PRB usage ranging within index 0
LTE-A Introduction
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
1526732698
L.ChMeas.PRB.PUSCH.Util.Samp.Index1
Number of samples with the PUSCH Multi-mode: None
PRB usage ranging within index 1
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
1526732699
L.ChMeas.PRB.PUSCH.Util.Samp.Index2
Number of samples with the PUSCH Multi-mode: None
PRB usage ranging within index 2
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
1526732700
L.ChMeas.PRB.PUSCH.Util.Samp.Index3
Number of samples with the PUSCH Multi-mode: None
PRB usage ranging within index 3
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
1526732701
L.ChMeas.PRB.PUSCH.Util.Samp.Index4
Number of samples with the PUSCH Multi-mode: None
PRB usage ranging within index 4
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
1526732702
L.ChMeas.PRB.PUSCH.Util.Samp.Index5
Number of samples with the PUSCH Multi-mode: None
PRB usage ranging within index 5
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
1526732703
L.ChMeas.PRB.PUSCH.Util.Samp.Index6
Number of samples with the PUSCH Multi-mode: None
PRB usage ranging within index 6
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
1526732704
L.ChMeas.PRB.PUSCH.Util.Samp.Index7
Number of samples with the PUSCH Multi-mode: None
PRB usage ranging within index 7
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
1526732705
L.ChMeas.PRB.PUSCH.Util.Samp.Index8
Number of samples with the PUSCH Multi-mode: None
PRB usage ranging within index 8
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLOFD-001075
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526732706
L.ChMeas.PRB.PUSCH.Util.Samp.Index9
Number of samples with the PUSCH Multi-mode: None
PRB usage ranging within index 9
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
1526732707
L.ChMeas.PRB.UL.TaSch.Used.Avg
Average number of PRBs allocated
for uplink TA measurement
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526732708
L.ChMeas.CCE.ULUsed.TA
Number of PDCCH CCEs allocated
for TA measurement
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526732727
L.ChMeas.PRB.PDSCH.Util.Samp.Index0
Number of samples with the PDSCH Multi-mode: None
PRB usage ranging within index 0
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LEOFD-111305
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526732728
L.ChMeas.PRB.PDSCH.Util.Samp.Index1
Number of samples with the PDSCH Multi-mode: None
PRB usage ranging within index 1
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LEOFD-111305
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526732729
L.ChMeas.PRB.PDSCH.Util.Samp.Index2
Number of samples with the PDSCH Multi-mode: None
PRB usage ranging within index 2
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LEOFD-111305
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526732730
L.ChMeas.PRB.PDSCH.Util.Samp.Index3
Number of samples with the PDSCH Multi-mode: None
PRB usage ranging within index 3
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LEOFD-111305
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526732731
L.ChMeas.PRB.PDSCH.Util.Samp.Index4
Number of samples with the PDSCH Multi-mode: None
PRB usage ranging within index 4
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LEOFD-111305
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526732732
L.ChMeas.PRB.PDSCH.Util.Samp.Index5
Multi-mode: None
LTE-A Introduction
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of samples with the PDSCH GSM: None
PRB usage ranging within index 5
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LEOFD-111305
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526732733
L.ChMeas.PRB.PDSCH.Util.Samp.Index6
Number of samples with the PDSCH Multi-mode: None
PRB usage ranging within index 6
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LEOFD-111305
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526732734
L.ChMeas.PRB.PDSCH.Util.Samp.Index7
Number of samples with the PDSCH Multi-mode: None
PRB usage ranging within index 7
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LEOFD-111305
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526732735
L.ChMeas.PRB.PDSCH.Util.Samp.Index8
Number of samples with the PDSCH Multi-mode: None
PRB usage ranging within index 8
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LEOFD-111305
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526732736
L.ChMeas.PRB.PDSCH.Util.Samp.Index9
Number of samples with the PDSCH Multi-mode: None
PRB usage ranging within index 9
GSM: None
UMTS: None
LTE: LAOFD-001001
LAOFD-001002
TDLOFD-001075
LBFD-002025
TDLBFD-002025
LEOFD-111305
LTE-A Introduction
Carrier Aggregation for
Downlink 2CC in 40MHz
SFN
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526732737
L.ChMeas.RI.Rank3
Number of times a UE reports rank 3 Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LOFD-001060
TDLBFD-002025
Basic Scheduling
DL 4x4 MIMO
Basic Scheduling
1526732738
L.ChMeas.RI.Rank4
Number of times a UE reports rank 4 Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LOFD-001060
TDLBFD-002025
Basic Scheduling
DL 4x4 MIMO
Basic Scheduling
1526732739
L.DLPSServ.EstDelay.Avg.Idle
Average access delay for downlink
data services successfully initiated
by idle-mode UEs in the cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732740
L.DLPSServ.EstDelay.Good.Num.Idle
Number of times that the access
delay for a downlink data service
successfully initiated by an idlemode UE in the cell is within the
Good range
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526732741
L.DLPSServ.EstDelay.Medium.Num.Idle
Number of times that the access
delay for a downlink data service
successfully initiated by an idlemode UE in the cell is within the
Medium range
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732742
L.DLPSServ.EstDelay.Bad.Num.Idle
Number of times that the access
delay for a downlink data service
successfully initiated by an idlemode UE in the cell is within the Bad
range
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732743
L.Thrp.bits.DL.PerUser.In.Index0
Number of times that the downlink
Multi-mode: None
PS service traffic in the cell is within GSM: None
the range of (0, DlUserThruputThd0) UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732744
L.Thrp.bits.DL.PerUser.In.Index1
Number of times that the downlink
PS service traffic in the cell is within
the range of [DlUserThruputThd0,
DlUserThruputThd1)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732745
L.Thrp.bits.DL.PerUser.In.Index2
Number of times that the downlink
PS service traffic in the cell is within
the range of [DlUserThruputThd1,
DlUserThruputThd2)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732746
L.Thrp.bits.DL.PerUser.In.Index3
Number of times that the downlink
PS service traffic in the cell is within
the range of [DlUserThruputThd2,
DlUserThruputThd3)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732747
L.Thrp.bits.DL.PerUser.In.Index4
Number of times that the downlink
PS service traffic in the cell is within
the range of [DlUserThruputThd3,
DlUserThruputThd4)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732748
L.Thrp.bits.DL.PerUser.In.Index5
Number of times that the downlink
PS service traffic in the cell is
greater than DlUserThruputThd4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732749
L.Thrp.bits.DL.PerUser.Out.Index0
Number of times that the downlink
PS service throughput in the cell is
within the range of (0,
DlUserThruputThd0)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732750
L.Thrp.bits.DL.PerUser.Out.Index1
Number of times that the downlink
PS service throughput in the cell is
Multi-mode: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
within the range of
[DlUserThruputThd0,
DlUserThruputThd1)
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732751
L.Thrp.bits.DL.PerUser.Out.Index2
Number of times that the downlink
PS service throughput in the cell is
within the range of
[DlUserThruputThd1,
DlUserThruputThd2)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732752
L.Thrp.bits.DL.PerUser.Out.Index3
Number of times that the downlink
PS service throughput in the cell is
within the range of
[DlUserThruputThd2,
DlUserThruputThd3)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732753
L.Thrp.bits.DL.PerUser.Out.Index4
Number of times that the downlink
PS service throughput in the cell is
within the range of
[DlUserThruputThd3,
DlUserThruputThd4)
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732754
L.Thrp.bits.DL.PerUser.Out.Index5
Number of times that the downlink
PS service throughput in the cell is
greater than DlUserThruputThd4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732755
L.Traffic.DL.EmptyBuf.PDCPLat.Num
Total number of downlink PDCP
Multi-mode: None
SDUs that are for DRB services and GSM: None
enter the empty buffer in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732756
L.Traffic.DL.EmptyBuf.PDCPLat.Num.QCI.1
Total number of downlink PDCP
SDUs that are for DRB services of
QCI 1 and enter the empty buffer in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732757
L.Traffic.DL.EmptyBuf.PDCPLat.Num.QCI.2
Total number of downlink PDCP
SDUs that are for DRB services of
QCI 2 and enter the empty buffer in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732758
L.Traffic.DL.EmptyBuf.PDCPLat.Num.QCI.3
Total number of downlink PDCP
SDUs that are for DRB services of
QCI 3 and enter the empty buffer in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732759
L.Traffic.DL.EmptyBuf.PDCPLat.Num.QCI.4
Total number of downlink PDCP
SDUs that are for DRB services of
QCI 4 and enter the empty buffer in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526732760
L.Traffic.DL.EmptyBuf.PDCPLat.Num.QCI.5
Total number of downlink PDCP
SDUs that are for DRB services of
QCI 5 and enter the empty buffer in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732761
L.Traffic.DL.EmptyBuf.PDCPLat.Num.QCI.6
Total number of downlink PDCP
SDUs that are for DRB services of
QCI 6 and enter the empty buffer in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732762
L.Traffic.DL.EmptyBuf.PDCPLat.Num.QCI.7
Total number of downlink PDCP
SDUs that are for DRB services of
QCI 7 and enter the empty buffer in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732763
L.Traffic.DL.EmptyBuf.PDCPLat.Num.QCI.8
Total number of downlink PDCP
SDUs that are for DRB services of
QCI 8 and enter the empty buffer in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732764
L.Traffic.DL.EmptyBuf.PDCPLat.Num.QCI.9
Total number of downlink PDCP
SDUs that are for DRB services of
QCI 9 and enter the empty buffer in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732765
L.Traffic.DL.EmptyBuf.PDCPLat.Time
Total transmission delay of the first
PDCP SDUs of DRB services in the
empty buffer in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732766
L.Traffic.DL.EmptyBuf.PDCPLat.Time.QCI.1
Total transmission delay of the first
Multi-mode: None
PDCP SDUs of DRB services of QCI GSM: None
1 in the empty buffer in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732767
L.Traffic.DL.EmptyBuf.PDCPLat.Time.QCI.2
Total transmission delay of the first
Multi-mode: None
PDCP SDUs of DRB services of QCI GSM: None
2 in the empty buffer in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732768
L.Traffic.DL.EmptyBuf.PDCPLat.Time.QCI.3
Total transmission delay of the first
Multi-mode: None
PDCP SDUs of DRB services of QCI GSM: None
3 in the empty buffer in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732769
L.Traffic.DL.EmptyBuf.PDCPLat.Time.QCI.4
Multi-mode: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Total transmission delay of the first
GSM: None
PDCP SDUs of DRB services of QCI UMTS: None
4 in the empty buffer in a cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732770
L.Traffic.DL.EmptyBuf.PDCPLat.Time.QCI.5
Total transmission delay of the first
Multi-mode: None
PDCP SDUs of DRB services of QCI GSM: None
5 in the empty buffer in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732771
L.Traffic.DL.EmptyBuf.PDCPLat.Time.QCI.6
Total transmission delay of the first
Multi-mode: None
PDCP SDUs of DRB services of QCI GSM: None
6 in the empty buffer in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732772
L.Traffic.DL.EmptyBuf.PDCPLat.Time.QCI.7
Total transmission delay of the first
Multi-mode: None
PDCP SDUs of DRB services of QCI GSM: None
7 in the empty buffer in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732773
L.Traffic.DL.EmptyBuf.PDCPLat.Time.QCI.8
Total transmission delay of the first
Multi-mode: None
PDCP SDUs of DRB services of QCI GSM: None
8 in the empty buffer in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732774
L.Traffic.DL.EmptyBuf.PDCPLat.Time.QCI.9
Total transmission delay of the first
Multi-mode: None
PDCP SDUs of DRB services of QCI GSM: None
9 in the empty buffer in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526732775
L.Thrp.bits.UE.UL.PL0
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [0, 90) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732776
L.Thrp.bits.UE.UL.PL1
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [90, 95) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732777
L.Thrp.bits.UE.UL.PL2
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [95, 100) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
1526732778
L.Thrp.bits.UE.UL.PL3
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [100, 105) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732779
L.Thrp.bits.UE.UL.PL4
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [105, 110) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732780
L.Thrp.bits.UE.UL.PL5
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [110, 115) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732781
L.Thrp.bits.UE.UL.PL6
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [115, 120) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732782
L.Thrp.bits.UE.UL.PL7
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [120, 125) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732783
L.Thrp.bits.UE.UL.PL8
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [125, 130) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732784
L.Thrp.bits.UE.UL.PL9
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [130, 135) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732785
L.Thrp.bits.UE.UL.PL10
Total uplink throughput of PDCP
PDUs for UEs whose path loss is
greater than or equal to 135 dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732786
L.Thrp.Time.UE.UL.RmvSmallPkt.PL0
Data transmission duration of uplink Multi-mode: None
PDCP PDUs (excluding small
GSM: None
packets) for UEs whose path loss
UMTS: None
ranges within the range of [0, 90) dB
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732787
L.Thrp.Time.UE.UL.RmvSmallPkt.PL1
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
ranges within [90, 95) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732788
L.Thrp.Time.UE.UL.RmvSmallPkt.PL2
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
within [95, 100) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732789
L.Thrp.Time.UE.UL.RmvSmallPkt.PL3
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
ranges within [100, 105) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732790
L.Thrp.Time.UE.UL.RmvSmallPkt.PL4
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
ranges within [105, 110) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732791
L.Thrp.Time.UE.UL.RmvSmallPkt.PL5
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
ranges within [110, 115) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732792
L.Thrp.Time.UE.UL.RmvSmallPkt.PL6
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
ranges within [115, 120) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732793
L.Thrp.Time.UE.UL.RmvSmallPkt.PL7
Multi-mode: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
ranges within [120, 125) dB
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732794
L.Thrp.Time.UE.UL.RmvSmallPkt.PL8
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
ranges within [125, 130) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732795
L.Thrp.Time.UE.UL.RmvSmallPkt.PL9
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
ranges within [130, 135) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732796
L.Thrp.Time.UE.UL.RmvSmallPkt.PL10
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss is
greater than or equal to 135 dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732797
L.Thrp.bits.UE.UL.SmallPkt.PL0
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss ranges within [0, 90) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732798
L.Thrp.bits.UE.UL.SmallPkt.PL1
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss ranges within [90, 95) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732799
L.Thrp.bits.UE.UL.SmallPkt.PL2
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss ranges within [95, 100) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732800
L.Thrp.bits.UE.UL.SmallPkt.PL3
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss ranges within [100, 105)
dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Uplink Power Control
Uplink Power Control
1526732801
L.Thrp.bits.UE.UL.SmallPkt.PL4
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss ranges within [105, 110)
dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732802
L.Thrp.bits.UE.UL.SmallPkt.PL5
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss ranges within [110, 115)
dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732803
L.Thrp.bits.UE.UL.SmallPkt.PL6
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss ranges within [115, 120)
dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732804
L.Thrp.bits.UE.UL.SmallPkt.PL7
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss ranges within [120, 125)
dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732805
L.Thrp.bits.UE.UL.SmallPkt.PL8
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss ranges within [125, 130)
dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732806
L.Thrp.bits.UE.UL.SmallPkt.PL9
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss ranges within [130, 135)
dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732807
L.Thrp.bits.UE.UL.SmallPkt.PL10
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss is greater than or equal to
135 dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732808
L.Traffic.User.PL0
Multi-mode: None
GSM: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of UEs that perform
services and have a path loss
ranging within [0, 90) dB
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732809
L.Traffic.User.PL1
Number of UEs that perform
services and have a path loss
ranging within [90, 95) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732810
L.Traffic.User.PL2
Number of UEs that perform
services and have a path loss
ranging within [95, 100) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732811
L.Traffic.User.PL3
Number of UEs that perform
services and have a path loss
ranging within [100, 105) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732812
L.Traffic.User.PL4
Number of UEs that perform
services and have a path loss
ranging within [105, 110) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732813
L.Traffic.User.PL5
Number of UEs that perform
services and have a path loss
ranging within [110, 115) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732814
L.Traffic.User.PL6
Number of UEs that perform
services and have a path loss
ranging within [115, 120) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732815
L.Traffic.User.PL7
Number of UEs that perform
services and have a path loss
ranging within [120, 125) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002026
TDLBFD-002026
Uplink Power Control
1526732816
L.Traffic.User.PL8
Number of UEs that perform
services and have a path loss
ranging within [125, 130) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732817
L.Traffic.User.PL9
Number of UEs that perform
services and have a path loss
ranging within [130, 135) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526732818
L.Traffic.User.PL10
Number of UEs that perform
services and have a path loss
ranging within [135, 138) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526734141
L.Thrp.bits.DL.Phy
Total downlink traffic volume at the
physical layer in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526734142
L.Thrp.bits.UL.Phy
Total uplink traffic volume at the
physical layer in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526734143
L.Thrp.bits.DL.Phy.Max
Maximum downlink traffic volume of
all services at the physical layer
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526734144
L.Thrp.bits.UL.Phy.Max
Maximum uplink traffic volume of all
services at the physical layer
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735160
L.E-RAB.SessionTime.UE.HighPrecision
Total duration of UE data
transmission time with the precision
of 100 milliseconds in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735161
L.E-RAB.SessionTime.HighPrecision
Total duration of transmission time
for services with all the QCI with the
Multi-mode: None
GSM: None
UMTS: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
precision of 100 milliseconds in a
cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735162
L.E-RAB.SessionTime.HighPrecision.QCI1
Duration of data transmission for
services with the QCI of 1 with the
precision of 100 milliseconds in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735163
L.E-RAB.SessionTime.HighPrecision.QCI2
Duration of data transmission for
services with the QCI of 2 with the
precision of 100 milliseconds in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735164
L.E-RAB.SessionTime.HighPrecision.QCI3
Duration of data transmission for
services with the QCI of 3 with the
precision of 100 milliseconds in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735165
L.E-RAB.SessionTime.HighPrecision.QCI4
Duration of data transmission for
services with the QCI of 4 with the
precision of 100 milliseconds in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735166
L.E-RAB.SessionTime.HighPrecision.QCI5
Duration of data transmission for
services with the QCI of 5 with the
precision of 100 milliseconds in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735167
L.E-RAB.SessionTime.HighPrecision.QCI6
Duration of data transmission for
services with the QCI of 6 with the
precision of 100 milliseconds in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735168
L.E-RAB.SessionTime.HighPrecision.QCI7
Duration of data transmission for
services with the QCI of 7 with the
precision of 100 milliseconds in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735169
L.E-RAB.SessionTime.HighPrecision.QCI8
Duration of data transmission for
services with the QCI of 8 with the
precision of 100 milliseconds in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735170
L.E-RAB.SessionTime.HighPrecision.QCI9
Duration of data transmission for
services with the QCI of 9 with the
precision of 100 milliseconds in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
1526735542
L.Thrp.Relay.bits.DL
Total traffic volume of downlink
PDCP SDUs transmitted by active
RUEs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
TDLAOFD-080405
LAOFD-111202
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Out of Band Relay
Introduction
Out of Band Relay
1526735543
L.Thrp.Relay.Time.DL
Total transmit duration of downlink
PDCP SDUs transmitted by active
RUEs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
TDLAOFD-080405
LAOFD-111202
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Out of Band Relay
Introduction
Out of Band Relay
1526735544
L.Thrp.Relay.bits.UL
Total traffic volume of uplink PDCP
SDUs received by active RUEs in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
TDLAOFD-080405
LAOFD-111202
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Out of Band Relay
Introduction
Out of Band Relay
1526735545
L.Thrp.Relay.Time.UL
Total transmit duration of uplink
PDCP SDUs received by active
RUEs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
TDLAOFD-080405
LAOFD-111202
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Out of Band Relay
Introduction
Out of Band Relay
1526735546
L.Traffic.DL.PktDelay.Relay.Time
Total processing delay of downlink
Multi-mode: None
PDCP SDUs transmitted by RUEs in GSM: None
a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
TDLAOFD-080405
LAOFD-111202
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Out of Band Relay
Introduction
Out of Band Relay
1526735547
L.Traffic.DL.PktDelay.Relay.Num
Number of downlink PDCP SDUs
successfully transmitted by RUEs in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
TDLAOFD-080405
LAOFD-111202
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Out of Band Relay
Introduction
Out of Band Relay
1526735548
L.Traffic.UL.PktLoss.Relay.Loss
Number of uplink PDCP SDUs
discarded by RUEs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
TDLAOFD-080405
LAOFD-111202
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Out of Band Relay
Introduction
Out of Band Relay
1526735549
L.Traffic.UL.PktLoss.Relay.Tot
Number of uplink PDCP PDUs
expected to be received by RUEs in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
TDLAOFD-080405
LAOFD-111202
Basic Scheduling
Out of Band Relay
Introduction
Out of Band Relay
1526735550
L.ChMeas.PRB.Relay.DL.Used.Avg
Average number of downlink PRBs
used by RUEs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-070205
TDLAOFD-080405
LAOFD-111202
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
Out of Band Relay
Introduction
Out of Band Relay
1526735551
L.ChMeas.PRB.Relay.PUSCH.Avg
Average number of uplink PRBs
used by RUEs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-070205
TDLAOFD-080405
LAOFD-111202
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
Out of Band Relay
Introduction
Out of Band Relay
1526735568
L.Thrp.bits.DL.PDCP.Send
Total PDCP-layer traffic volume of
to-be-transmitted downlink data in a
cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735569
L.Thrp.bits.DL.PDCP.Discard
Total PDCP-layer traffic volume of
Multi-mode: None
discarded to-be-transmitted downlink GSM: None
data in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735570
L.Thrp.bits.DL.RLC.Send
Total RLC-layer traffic volume of
downlink data in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735571
L.Thrp.bits.UL.RLC.Send
Total RLC-layer traffic volume of
uplink data in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735572
L.Thrp.bits.UL.PDCP.Discard
Total PDCP-layer traffic volume of
discarded uplink data in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526735573
L.Thrp.bits.UL.PDCP.Send
Total PDCP-layer traffic volume of
uplink data in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526736680
L.PDCP.Tx.Disc.Trf.SDU.PLMN.QCI.1
Number of downlink traffic SDUs
discarded by the PDCP layer for
services with a QCI of 1 for a
specific operator in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736681
L.PDCP.Tx.Disc.Trf.SDU.PLMN.QCI.5
Number of downlink traffic SDUs
discarded by the PDCP layer for
services with a QCI of 5 for a
specific operator in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736682
L.PDCP.Tx.TotRev.Trf.SDU.PLMN.QCI.1
Number of transmitted downlink
Multi-mode: None
traffic PDCP SDUs for services with GSM: None
a QCI of 1 for a specific operator in a UMTS: None
cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736683
L.PDCP.Tx.TotRev.Trf.SDU.PLMN.QCI.5
Number of transmitted downlink
Multi-mode: None
traffic PDCP SDUs for services with GSM: None
a QCI of 5 for a specific operator in a UMTS: None
cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736684
L.Traffic.UL.PktLoss.Loss.PLMN.QCI.1
Total number of discarded uplink
Multi-mode: None
PDCP SDUs for traffic services with GSM: None
a QCI of 1 for a specific operator in a UMTS: None
cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736685
L.Traffic.UL.PktLoss.Loss.PLMN.QCI.5
Total number of discarded uplink
Multi-mode: None
PDCP SDUs for traffic services with GSM: None
a QCI of 5 for a specific operator in a UMTS: None
cell
LTE: LBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736686
L.Traffic.UL.PktLoss.Tot.PLMN.QCI.1
Total number of expected uplink
Multi-mode: None
data packets for DRB services with a GSM: None
QCI of 1 for a specific operator in a UMTS: None
cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736687
L.Traffic.UL.PktLoss.Tot.PLMN.QCI.5
Total number of expected uplink
Multi-mode: None
data packets for DRB services with a GSM: None
QCI of 5 for a specific operator in a UMTS: None
cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736688
L.Traffic.DL.PktDelay.Num.PLMN.QCI.1
Number of successfully transmitted
downlink PDCP SDUs for DRB
services with a QCI of 1 for a
specific operator in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736689
L.Traffic.DL.PktDelay.Num.PLMN.QCI.5
Number of successfully transmitted
downlink PDCP SDUs for DRB
services with a QCI of 5 for a
specific operator in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736690
L.Traffic.DL.PktDelay.Time.PLMN.QCI.5
Total processing delay of downlink
Multi-mode: None
PDCP SDUs for DRB services with a GSM: None
UMTS: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
QCI of 5 for a specific operator in a
cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736691
L.Traffic.DL.PktDelay.Time.PLMN.QCI.1
Total processing delay of downlink
Multi-mode: None
PDCP SDUs for DRB services with a GSM: None
QCI of 1 for a specific operator in a UMTS: None
cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736737
L.Traffic.DL.PktUuLoss.Loss.PLMN.QCI.1
Total number of discarded downlink Multi-mode: None
PDCP SDUs for traffic services with GSM: None
a QCI of 1 for a specific operator in a UMTS: None
cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736738
L.Traffic.DL.PktUuLoss.Loss.PLMN.QCI.5
Total number of discarded downlink Multi-mode: None
PDCP SDUs for traffic services with GSM: None
a QCI of 5 for a specific operator in a UMTS: None
cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736739
L.Traffic.DL.PktUuLoss.Tot.PLMN.QCI.1
Total number of expected downlink Multi-mode: None
data packets for DRB services with a GSM: None
QCI of 1 for a specific operator in a UMTS: None
cell
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736740
L.Traffic.DL.PktUuLoss.Tot.PLMN.QCI.5
Multi-mode: None
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Total number of expected downlink GSM: None
data packets for DRB services with a UMTS: None
QCI of 5 for a specific operator in a LTE: LBFD-002008
cell
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-001036
TDLOFD-001036
LOFD-001037
TDLOFD-001037
LOFD-070206
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
RAN Sharing with
Dedicated Carrier
Hybrid RAN Sharing
1526736791
L.Traffic.DL.PktDelay.Time
Total downlink packet processing
delay of DRB services with all QCIs
(including extended QCIs) in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526736792
L.Traffic.DL.PktDelay.Num
Total number of successfully
transmitted downlink PDCP SDUs
for DRB services with all QCIs
(including extended QCIs) in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526736793
L.Traffic.DL.PktUuLoss.Loss
Total number of downlink PDCP
SDUs discarded for services carried
on DRBs with all QCIs (including the
QCI for PTT services and extended
QCIs) in a cell over the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526736794
L.Traffic.DL.PktUuLoss.Tot
Total number of downlink PDCP
SDUs transmitted for services
carried on DRBs with all QCIs
(including the QCI for PTT services
and extended QCIs) in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526736795
L.Traffic.UL.PktLoss.Loss
Total number of uplink PDCP SDUs
discarded for services carried on
DRBs with all QCIs (including the
QCI for PTT services and extended
QCIs) in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526736796
L.Traffic.UL.PktLoss.Tot
Total number of expected uplink
PDCP SDUs for services carried on
DRBs with all QCIs (including the
QCI for PTT services and extended
QCIs) in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526736797
L.PDCP.Tx.Disc.Trf.SDU
Total number of downlink PDCP
SDUs discarded for services carried
on DRBs with all QCIs (including the
QCI for PTT services and extended
QCIs) in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526736798
L.PDCP.Tx.TotRev.Trf.SDU
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with all QCIs (including the
QCI for PTT services and extended
QCIs) in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Basic Scheduling
1526736854
L.PDCP.Tx.TotRev.Trf.SDU.QCI.PTT
Number of downlink PDCP SDUs
Multi-mode: None
transmitted for PTT services in a cell GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-081218
TDLOFD-110230
LTROFD-111201
TDLOFD-121103
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Enhanced Extended QCI
Enhanced QoS for
MCPTT (Trial)
MCPTT QoS
Management
MCPTT QoS
Management
1526736855
L.Traffic.UL.PktLoss.Loss.QCI.PTT
Number of uplink PDCP SDUs
discarded for PTT services in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LTROFD-111201
TDLOFD-121103
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
MCPTT QoS
Management
MCPTT QoS
Management
1526736861
L.PDCP.Tx.Disc.Trf.SDU.QCI.PTT
Number of downlink PDCP SDUs
discarded for PTT services in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-081218
TDLOFD-110230
LTROFD-111201
TDLOFD-121103
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Enhanced Extended QCI
Enhanced QoS for
MCPTT (Trial)
MCPTT QoS
Management
MCPTT QoS
Management
1526736862
L.Traffic.UL.PktLoss.Tot.QCI.PTT
Number of expected uplink PDCP
SDUs for PTT services in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-081218
LTROFD-111201
TDLOFD-121103
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Enhanced Extended QCI
MCPTT QoS
Management
MCPTT QoS
Management
1526737710
L.ChMeas.CQI.DL.BorderUE.Total
Accumulated value of wideband
CQIs reported by CEUs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526737711
L.ChMeas.CQI.DL.BorderUE.Num
Number of times wideband CQIs are Multi-mode: None
reported by CEUs
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526737754
L.Thrp.bits.UL.BorderUE
Uplink PDCP-layer traffic volume
received for CEUs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526737755
L.Thrp.bits.DL.BorderUE
Downlink PDCP-layer traffic volume
sent for CEUs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
1526737756
L.Thrp.bits.UL.SmallPkt.BorderUE
PDCP-layer traffic volume scheduled Multi-mode: None
for uplink small packets for CEUs in GSM: None
a cell
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Feature ID
Feature Name
Basic Scheduling
Basic Scheduling
1526737757
L.Thrp.Time.UL.RmvSmallPkt.BorderUE
Transmission duration of uplink data Multi-mode: None
except small packets for CEUs in a GSM: None
cell
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526737758
L.Thrp.bits.DL.LastTTI.BorderUE
Downlink PDCP-layer traffic volume
sent in the last TTI for CEUs before
the buffer is empty in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526737759
L.Thrp.Time.DL.RmvLastTTI.BorderUE
Data transmission duration for CEUs Multi-mode: None
except the last TTI before the
GSM: None
downlink buffer is empty
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526737824
L.ChMeas.CCE.ULUsed.SRB
Number of PDCCH CCEs used for
initial transmitted uplink signaling in
a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526737839
L.ChMeas.PRB.TM1
Total number of used downlink
PRBs in TM1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LEOFD-111305
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526737840
L.ChMeas.PRB.TM2
Total number of used downlink
PRBs in TM2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LEOFD-111305
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526737841
L.ChMeas.PRB.TM3
Total number of used downlink
PRBs in TM3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LEOFD-111305
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526737842
L.ChMeas.PRB.TM4
Total number of used downlink
PRBs in TM4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LEOFD-111305
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526737844
L.ChMeas.PRB.TM6
Total number of used downlink
PRBs in TM6
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LEOFD-111305
Basic Scheduling
Basic Scheduling
Virtual 4T4R
1526737849
L.Traffic.DL.PktUuLoss.Loss.QCI.PTT
Total number of downlink PDCP
SDUs discarded for PTT services in
a cell over the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LOFD-081218
TDLOFD-110230
LTROFD-111201
TDLOFD-121103
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Enhanced Extended QCI
Enhanced QoS for
MCPTT (Trial)
MCPTT QoS
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
MCPTT QoS
Management
1526737850
L.Traffic.DL.PktUuLoss.Tot.QCI.PTT
Number of downlink PDCP SDUs
Multi-mode: None
transmitted for PTT services in a cell GSM: None
over the Uu interface
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LTROFD-111201
TDLOFD-121103
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
MCPTT QoS
Management
MCPTT QoS
Management
1526739662
L.ChMeas.DL.256QAM.CQI.DL.0
Number of wideband CQI reports
Multi-mode: None
with the value of 0 sent by downlink- GSM: None
256QAM-enabled UEs
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739663
L.ChMeas.DL.256QAM.CQI.DL.1
Number of wideband CQI reports
Multi-mode: None
with the value of 1 sent by downlink- GSM: None
256QAM-enabled UEs
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739664
L.ChMeas.DL.256QAM.CQI.DL.2
Number of wideband CQI reports
Multi-mode: None
with the value of 2 sent by downlink- GSM: None
256QAM-enabled UEs
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739665
L.ChMeas.DL.256QAM.CQI.DL.3
Number of wideband CQI reports
Multi-mode: None
with the value of 3 sent by downlink- GSM: None
256QAM-enabled UEs
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739666
L.ChMeas.DL.256QAM.CQI.DL.4
Number of wideband CQI reports
Multi-mode: None
with the value of 4 sent by downlink- GSM: None
256QAM-enabled UEs
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739667
L.ChMeas.DL.256QAM.CQI.DL.5
Number of wideband CQI reports
Multi-mode: None
with the value of 5 sent by downlink- GSM: None
256QAM-enabled UEs
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739668
L.ChMeas.DL.256QAM.CQI.DL.6
Number of wideband CQI reports
Multi-mode: None
with the value of 6 sent by downlink- GSM: None
256QAM-enabled UEs
Dynamic Downlink
Power Allocation
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739669
L.ChMeas.DL.256QAM.CQI.DL.7
Number of wideband CQI reports
Multi-mode: None
with the value of 7 sent by downlink- GSM: None
256QAM-enabled UEs
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739670
L.ChMeas.DL.256QAM.CQI.DL.8
Number of wideband CQI reports
Multi-mode: None
with the value of 8 sent by downlink- GSM: None
256QAM-enabled UEs
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739671
L.ChMeas.DL.256QAM.CQI.DL.9
Number of wideband CQI reports
Multi-mode: None
with the value of 9 sent by downlink- GSM: None
256QAM-enabled UEs
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739672
L.ChMeas.DL.256QAM.CQI.DL.10
Number of wideband CQI reports
with the value of 10 sent by
downlink-256QAM-enabled UEs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739673
L.ChMeas.DL.256QAM.CQI.DL.11
Number of wideband CQI reports
with the value of 11 sent by
downlink-256QAM-enabled UEs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739674
L.ChMeas.DL.256QAM.CQI.DL.12
Number of wideband CQI reports
with the value of 12 sent by
downlink-256QAM-enabled UEs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739675
L.ChMeas.DL.256QAM.CQI.DL.13
Number of wideband CQI reports
with the value of 13 sent by
downlink-256QAM-enabled UEs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LEOFD-110301
TDLEOFD-110515
DL 256QAM
1526739676
L.ChMeas.DL.256QAM.CQI.DL.14
Number of wideband CQI reports
with the value of 14 sent by
downlink-256QAM-enabled UEs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739677
L.ChMeas.DL.256QAM.CQI.DL.15
Number of wideband CQI reports
with the value of 15 sent by
downlink-256QAM-enabled UEs
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002016
LBFD-002025
TDLBFD-002016
TDLBFD-002025
LEOFD-110301
TDLEOFD-110515
Dynamic Downlink
Power Allocation
Basic Scheduling
Dynamic Downlink
Power Allocation
Basic Scheduling
DL 256QAM
DL 256QAM
1526739682
L.ChMeas.PDSCH.DL.256QAM.MCS.0
Number of times MCS index 0 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739683
L.ChMeas.PDSCH.DL.256QAM.MCS.1
Number of times MCS index 1 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739684
L.ChMeas.PDSCH.DL.256QAM.MCS.2
Number of times MCS index 2 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739685
L.ChMeas.PDSCH.DL.256QAM.MCS.3
Number of times MCS index 3 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739686
L.ChMeas.PDSCH.DL.256QAM.MCS.4
Number of times MCS index 4 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739687
L.ChMeas.PDSCH.DL.256QAM.MCS.5
Multi-mode: None
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of times MCS index 5 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739688
L.ChMeas.PDSCH.DL.256QAM.MCS.6
Number of times MCS index 6 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739689
L.ChMeas.PDSCH.DL.256QAM.MCS.7
Number of times MCS index 7 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739690
L.ChMeas.PDSCH.DL.256QAM.MCS.8
Number of times MCS index 8 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739691
L.ChMeas.PDSCH.DL.256QAM.MCS.9
Number of times MCS index 9 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739692
L.ChMeas.PDSCH.DL.256QAM.MCS.10
Number of times MCS index 10 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739693
L.ChMeas.PDSCH.DL.256QAM.MCS.11
Number of times MCS index 11 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739694
L.ChMeas.PDSCH.DL.256QAM.MCS.12
Number of times MCS index 12 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739695
L.ChMeas.PDSCH.DL.256QAM.MCS.13
Number of times MCS index 13 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739696
L.ChMeas.PDSCH.DL.256QAM.MCS.14
Number of times MCS index 14 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739697
L.ChMeas.PDSCH.DL.256QAM.MCS.15
Number of times MCS index 15 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739698
L.ChMeas.PDSCH.DL.256QAM.MCS.16
Number of times MCS index 16 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739699
L.ChMeas.PDSCH.DL.256QAM.MCS.17
Number of times MCS index 17 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739700
L.ChMeas.PDSCH.DL.256QAM.MCS.18
Number of times MCS index 18 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739701
L.ChMeas.PDSCH.DL.256QAM.MCS.19
Number of times MCS index 19 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739702
L.ChMeas.PDSCH.DL.256QAM.MCS.20
Number of times MCS index 20 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739703
L.ChMeas.PDSCH.DL.256QAM.MCS.21
Number of times MCS index 21 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739704
L.ChMeas.PDSCH.DL.256QAM.MCS.22
Number of times MCS index 22 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739705
L.ChMeas.PDSCH.DL.256QAM.MCS.23
Number of times MCS index 23 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739706
L.ChMeas.PDSCH.DL.256QAM.MCS.24
Number of times MCS index 24 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739707
L.ChMeas.PDSCH.DL.256QAM.MCS.25
Number of times MCS index 25 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739708
L.ChMeas.PDSCH.DL.256QAM.MCS.26
Number of times MCS index 26 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LEOFD-110301
TDLEOFD-110515
DL 256QAM
DL 256QAM
1526739709
L.ChMeas.PDSCH.DL.256QAM.MCS.27
Number of times MCS index 27 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739710
L.ChMeas.PDSCH.DL.256QAM.MCS.28
Number of times MCS index 28 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739711
L.ChMeas.PDSCH.DL.256QAM.MCS.29
Number of times MCS index 29 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739712
L.ChMeas.PDSCH.DL.256QAM.MCS.30
Number of times MCS index 30 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739713
L.ChMeas.PDSCH.DL.256QAM.MCS.31
Number of times MCS index 31 is
selected for scheduling downlink256QAM-enabled UEs on the
PDSCH in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LBFD-001005
TDLBFD-002025
TDLBFD-001005
LEOFD-110301
TDLEOFD-110515
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
Basic Scheduling
Modulation: DL/UL
QPSK, DL/UL 16QAM,
DL 64QAM
DL 256QAM
DL 256QAM
1526739788
L.Traffic.UL.PktDisorderLoss.Loss.QCI.1
Number of uplink PDCP SDUs of
QCI 1 discarded because of SN
disorder or changes in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526740440
L.Thrp.bits.DL.LastTTI.CAUser
Downlink PDCP-layer traffic volume Multi-mode: None
of CA UEs sent in the last TTI before GSM: None
the buffer is empty
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LAOFD-001001
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
LTE-A Introduction
1526740441
L.Thrp.Time.DL.RmvLastTTI.CAUser
Data transmission duration for CA
UEs except the last TTI before the
buffer is empty
Radio Bearer
Management
Radio Bearer
Management
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LAOFD-001001
Basic Scheduling
Basic Scheduling
LTE-A Introduction
1526740488
L.Thrp.Time.UE.UL.Experienced
Uplink data transmission duration
from the time the UE buffer is not
empty to the time the UE buffer is
empty in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LOFD-110205
LBFD-001015
Traffic Model Based
Performance
Optimization
Enhanced Scheduling
1526740489
L.Thrp.bits.UE.UL.Experienced
Uplink traffic volume of PDCP PDUs Multi-mode: None
received from the time the UE buffer GSM: None
is not empty to the time the UE
UMTS: None
buffer is empty in a cell
LTE: LOFD-110205
LBFD-001015
Traffic Model Based
Performance
Optimization
Enhanced Scheduling
1526741667
L.RBUsedOtherGroup.UL.PLMN
Average number of other operator
resource groups' uplink PRBs used
by a specific operator in an operator
resource group in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LOFD-001036
LOFD-001037
LOFD-070205
LOFD-070206
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Adaptive SFN/SDMA
Hybrid RAN Sharing
1526741668
L.RBUsedOtherGroup.DL.PLMN
Average number of other operator
resource groups' downlink PRBs
used by a specific operator in an
operator resource group in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
LOFD-001036
LOFD-001037
LOFD-070205
LOFD-070206
Basic Scheduling
RAN Sharing with
Common Carrier
RAN Sharing with
Dedicated Carrier
Adaptive SFN/SDMA
Hybrid RAN Sharing
1526741759
L.Thrp.Time.UL.BorderUE
Total duration of receiving data from Multi-mode: None
cell edge UEs in the uplink at the
GSM: None
PDCP layer in a cell
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526741760
L.Thrp.Time.DL.BorderUE
Total duration of sending data to cell Multi-mode: None
edge UEs in the downlink at the
GSM: None
PDCP layer in a cell
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526741763
L.ChMeas.PRB.PUSCH.Avg.BorderUE
Average number of PUSCH PRBs
occupied by CEUs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526741767
L.ChMeas.PRB.PDSCH.Avg.BorderUE
Average number of PDSCH PRBs
occupied by CEUs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526741811
L.Thrp.bits.UL.ExtQCI.Index0
Uplink traffic volume of PDCP PDUs Multi-mode: None
of services with an extended QCI of GSM: None
counter index 0
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741812
L.Thrp.bits.UL.ExtQCI.Index1
Uplink traffic volume of PDCP PDUs Multi-mode: None
of services with an extended QCI of GSM: None
counter index 1
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002032
TDLBFD-002032
1526741813
L.Thrp.bits.UL.ExtQCI.Index2
Uplink traffic volume of PDCP PDUs Multi-mode: None
of services with an extended QCI of GSM: None
counter index 2
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741814
L.Thrp.bits.UL.ExtQCI.Index3
Uplink traffic volume of PDCP PDUs Multi-mode: None
of services with an extended QCI of GSM: None
counter index 3
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741815
L.Thrp.bits.UL.ExtQCI.Index4
Uplink traffic volume of PDCP PDUs Multi-mode: None
of services with an extended QCI of GSM: None
counter index 4
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741816
L.Thrp.Time.UL.ExtQCI.Index0
Uplink PDCP-layer transmission
duration of services with an
extended QCI of counter index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741817
L.Thrp.Time.UL.ExtQCI.Index1
Uplink PDCP-layer transmission
duration of services with an
extended QCI of counter index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741818
L.Thrp.Time.UL.ExtQCI.Index2
Uplink PDCP-layer transmission
duration of services with an
extended QCI of counter index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741819
L.Thrp.Time.UL.ExtQCI.Index3
Uplink PDCP-layer transmission
duration of services with an
extended QCI of counter index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741820
L.Thrp.Time.UL.ExtQCI.Index4
Uplink PDCP-layer transmission
duration of services with an
extended QCI of counter index 4
Multi-mode: None
GSM: None
UMTS: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741821
L.Thrp.bits.DL.ExtQCI.Index0
Downlink traffic volume of PDCP
SDUs of services with an extended
QCI of counter index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741822
L.Thrp.bits.DL.ExtQCI.Index1
Downlink traffic volume of PDCP
SDUs of services with an extended
QCI of counter index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741823
L.Thrp.bits.DL.ExtQCI.Index2
Downlink traffic volume of PDCP
SDUs of services with an extended
QCI of counter index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741824
L.Thrp.bits.DL.ExtQCI.Index3
Downlink traffic volume of PDCP
SDUs of services with an extended
QCI of counter index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741825
L.Thrp.bits.DL.ExtQCI.Index4
Downlink traffic volume of PDCP
SDUs of services with an extended
QCI of counter index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741826
L.Thrp.Time.DL.ExtQCI.Index0
Downlink PDCP-layer transmission
duration of services with an
extended QCI of counter index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741827
L.Thrp.Time.DL.ExtQCI.Index1
Downlink PDCP-layer transmission
duration of services with an
extended QCI of counter index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002032
1526741828
L.Thrp.Time.DL.ExtQCI.Index2
Downlink PDCP-layer transmission
duration of services with an
extended QCI of counter index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741829
L.Thrp.Time.DL.ExtQCI.Index3
Downlink PDCP-layer transmission
duration of services with an
extended QCI of counter index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741830
L.Thrp.Time.DL.ExtQCI.Index4
Downlink PDCP-layer transmission
duration of services with an
extended QCI of counter index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741831
L.Traffic.ActiveUser.UL.ExtQCI.Index0
Number of activated UEs with an
extended QCI of counter index 0 in
the uplink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741832
L.Traffic.ActiveUser.UL.ExtQCI.Index1
Number of activated UEs with an
extended QCI of counter index 1 in
the uplink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741833
L.Traffic.ActiveUser.UL.ExtQCI.Index2
Number of activated UEs with an
extended QCI of counter index 2 in
the uplink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741834
L.Traffic.ActiveUser.UL.ExtQCI.Index3
Number of activated UEs with an
extended QCI of counter index 3 in
the uplink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741835
L.Traffic.ActiveUser.UL.ExtQCI.Index4
Number of activated UEs with an
extended QCI of counter index 4 in
the uplink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741836
L.Traffic.ActiveUser.DL.ExtQCI.Index0
Number of activated UEs with an
extended QCI of counter index 0 in
the downlink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741837
L.Traffic.ActiveUser.DL.ExtQCI.Index1
Number of activated UEs with an
extended QCI of counter index 1 in
the downlink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741838
L.Traffic.ActiveUser.DL.ExtQCI.Index2
Number of activated UEs with an
extended QCI of counter index 2 in
the downlink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741839
L.Traffic.ActiveUser.DL.ExtQCI.Index3
Number of activated UEs with an
extended QCI of counter index 3 in
the downlink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741840
L.Traffic.ActiveUser.DL.ExtQCI.Index4
Number of activated UEs with an
extended QCI of counter index 4 in
the downlink
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002032
TDLBFD-002032
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Extended-QCI
Extended-QCI
1526741888
L.Traffic.User.BorderUE.Avg
Average number of CEUs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526741889
L.Traffic.User.BorderUE.Max
Maximum number of CEUs in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526741890
L.Traffic.User.IntraBoard.BorderUE.Avg
Average number of intra-BBP CEUs
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526741891
L.Traffic.User.IntraBBUInterBoard.BorderUE.Avg
Average number of intra-BBU interBBP CEUs in a cell
Multi-mode: None
GSM: None
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
1526741892
L.Traffic.User.InterBBU.BorderUE.Avg
Average number of inter-BBU CEUs Multi-mode: None
in a cell
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526741949
L.Thrp.bits.UE.UL.PL11
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [138,141) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741950
L.Thrp.bits.UE.UL.PL12
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [141,144) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741951
L.Thrp.bits.UE.UL.PL13
Total uplink throughput of PDCP
PDUs for UEs whose path loss
ranges within [144,147) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741952
L.Thrp.bits.UE.UL.PL14
Total uplink throughput of PDCP
PDUs for UEs whose path loss is
greater than or equal to 147 dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741953
L.Thrp.Time.UE.UL.RmvSmallPkt.PL11
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
ranges within [138,141) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741954
L.Thrp.Time.UE.UL.RmvSmallPkt.PL12
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
ranges within [141,144) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741955
L.Thrp.Time.UE.UL.RmvSmallPkt.PL13
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss
ranges within [144,147) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Uplink Power Control
Uplink Power Control
1526741956
L.Thrp.Time.UE.UL.RmvSmallPkt.PL14
Data transmission duration of uplink
PDCP PDUs (excluding small
packets) for UEs whose path loss is
greater than or equal to 147 dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741957
L.Thrp.bits.UE.UL.SmallPkt.PL11
Throughput of small uplink packets
Multi-mode: None
at the PDCP layer for UEs whose
GSM: None
path loss ranges within [138,141) dB UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741958
L.Thrp.bits.UE.UL.SmallPkt.PL12
Throughput of small uplink packets
Multi-mode: None
at the PDCP layer for UEs whose
GSM: None
path loss ranges within [141,147) dB UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741959
L.Thrp.bits.UE.UL.SmallPkt.PL13
Throughput of small uplink packets
Multi-mode: None
at the PDCP layer for UEs whose
GSM: None
path loss ranges within [144,147) dB UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741960
L.Thrp.bits.UE.UL.SmallPkt.PL14
Throughput of small uplink packets
at the PDCP layer for UEs whose
path loss is greater than or equal to
147 dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741961
L.Traffic.User.PL11
Number of UEs that perform
services and have a path loss
ranging between [138,141) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741962
L.Traffic.User.PL12
Number of UEs that perform
services and have a path loss
ranging between [141,144) dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741963
L.Traffic.User.PL13
Multi-mode: None
GSM: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Number of UEs that perform
services and have a path loss
ranging between [144,147) dB
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526741964
L.Traffic.User.PL14
Number of UEs that perform
services with a path loss greater
than or equal to 147 dB
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
LBFD-002026
TDLBFD-002026
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Uplink Power Control
Uplink Power Control
1526742092
L.Thrp.bits.UL.QCI.65
Uplink traffic volume for PDCP
PDUs of services with the QCI of 65
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742093
L.Thrp.bits.UL.QCI.66
Uplink traffic volume for PDCP
PDUs of services with the QCI of 66
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742094
L.Thrp.bits.UL.QCI.69
Uplink traffic volume for PDCP
PDUs of services with the QCI of 69
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742095
L.Thrp.bits.UL.QCI.70
Uplink traffic volume for PDCP
PDUs of services with the QCI of 70
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742096
L.Thrp.Time.UL.QCI.65
Receive duration of uplink PDCP
Multi-mode: None
PDUs for services with the QCI of 65 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742097
L.Thrp.Time.UL.QCI.66
Receive duration of uplink PDCP
Multi-mode: None
PDUs for services with the QCI of 66 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742098
L.Thrp.Time.UL.QCI.69
Receive duration of uplink PDCP
Multi-mode: None
PDUs for services with the QCI of 69 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742099
L.Thrp.Time.UL.QCI.70
Multi-mode: None
GSM: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Receive duration of uplink PDCP
UMTS: None
PDUs for services with the QCI of 70 LTE: LBFD-002008
in a cell
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742100
L.Thrp.bits.DL.QCI.65
Downlink traffic volume for PDCP
SDUs of services with the QCI of 65
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742101
L.Thrp.bits.DL.QCI.66
Downlink traffic volume for PDCP
SDUs of services with the QCI of 66
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742102
L.Thrp.bits.DL.QCI.69
Downlink traffic volume for PDCP
SDUs of services with the QCI of 69
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742103
L.Thrp.bits.DL.QCI.70
Downlink traffic volume for PDCP
SDUs of services with the QCI of 70
in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742104
L.Thrp.Time.DL.QCI.65
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 65 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742105
L.Thrp.Time.DL.QCI.66
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 66 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742106
L.Thrp.Time.DL.QCI.69
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 69 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742107
L.Thrp.Time.DL.QCI.70
Transmit duration of downlink PDCP Multi-mode: None
SDUs for services with the QCI of 70 GSM: None
in a cell
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742108
L.PDCP.Tx.TotRev.Trf.SDU.QCI.65
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 65 in a cell
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002025
1526742109
L.PDCP.Tx.TotRev.Trf.SDU.QCI.66
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 66 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742110
L.PDCP.Tx.TotRev.Trf.SDU.QCI.69
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 69 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742111
L.PDCP.Tx.TotRev.Trf.SDU.QCI.70
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 70 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742112
L.Traffic.DL.PktUuLoss.Loss.QCI.65
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 65 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742113
L.Traffic.DL.PktUuLoss.Loss.QCI.66
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 66 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742114
L.Traffic.DL.PktUuLoss.Loss.QCI.69
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 69 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742115
L.Traffic.DL.PktUuLoss.Loss.QCI.70
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 70 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742116
L.Traffic.DL.PktUuLoss.Tot.QCI.65
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 65 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742117
L.Traffic.DL.PktUuLoss.Tot.QCI.66
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 66 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742118
L.Traffic.DL.PktUuLoss.Tot.QCI.69
Number of downlink PDCP SDUs
transmitted for services carried on
Multi-mode: None
GSM: None
Radio Bearer
Management
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
DRBs with a QCI of 69 in a cell over
the Uu interface
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742119
L.Traffic.DL.PktUuLoss.Tot.QCI.70
Number of downlink PDCP SDUs
transmitted for services carried on
DRBs with a QCI of 70 in a cell over
the Uu interface
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742120
L.Traffic.UL.PktLoss.Loss.QCI.65
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 65 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742121
L.Traffic.UL.PktLoss.Loss.QCI.66
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 66 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742122
L.Traffic.UL.PktLoss.Loss.QCI.69
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 69 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742123
L.Traffic.UL.PktLoss.Loss.QCI.70
Number of uplink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 70 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742124
L.Traffic.UL.PktLoss.Tot.QCI.65
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 65 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742125
L.Traffic.UL.PktLoss.Tot.QCI.66
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 66 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742126
L.Traffic.UL.PktLoss.Tot.QCI.69
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 69 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742127
L.Traffic.UL.PktLoss.Tot.QCI.70
Number of expected uplink PDCP
SDUs for services carried on DRBs
with a QCI of 70 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
TDLBFD-002025
1526742128
L.PDCP.Tx.Disc.Trf.SDU.QCI.65
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 65 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742129
L.PDCP.Tx.Disc.Trf.SDU.QCI.66
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 66 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742130
L.PDCP.Tx.Disc.Trf.SDU.QCI.69
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 69 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742131
L.PDCP.Tx.Disc.Trf.SDU.QCI.70
Number of downlink PDCP SDUs
discarded for services carried on
DRBs with a QCI of 70 in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526742156
L.ChMeas.PRB.UL.DrbUsed.Avg.QCI2
Average number of PRBs used by
DRBs on the PUSCH for uplink
QCI2 services
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
LOFD-070205
Basic Scheduling
Basic Scheduling
Adaptive SFN/SDMA
1526742186
L.Thrp.Time.DL.SmallPktConverted
Downlink data transmission duration Multi-mode: None
with converted downlink smallGSM: None
packet transmission duration
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526743729
L.ChMeas.BF.TM7.PRB.OL.Rank1
Total number of PRBs used for
Multi-mode: None
downlink beamforming in TM7 rank1 GSM: None
mode
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLOFD-001049
TDLOFD-001061
Basic Scheduling
Basic Scheduling
Single Streaming
Beamforming
Dual Streaming
Beamforming
1526743730
L.ChMeas.BF.TM8.PRB.OL.Rank1
Total number of PRBs used for
downlink beamforming in TM8 rank
1 mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLOFD-001049
TDLOFD-001061
Basic Scheduling
Basic Scheduling
Single Streaming
Beamforming
Dual Streaming
Beamforming
1526743731
L.ChMeas.BF.TM8.PRB.OL.Rank2
Total number of PRBs used for
downlink beamforming in TM8 rank
2 mode
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLOFD-001049
TDLOFD-001061
Basic Scheduling
Basic Scheduling
Single Streaming
Beamforming
Dual Streaming
Beamforming
1526745771
L.Thrp.bits.DL.TrafficSizeBased
Traffic-size-based downlink PDCPlayer traffic volume
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
LBFD-002025
TDLBFD-002025
1526745772
L.Thrp.Time.DL.TrafficSizeBased
Traffic-size-based downlink PDCPlayer data transmission duration
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526745773
L.Thrp.BitRate.DL.UserExp.Bad.Num
Number of times the downlink UEperceived data rate is low in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526745774
L.Thrp.BitRate.DL.UserExp.Good.Num
Number of times the downlink UEperceived data rate is high in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526745980
L.ChMeas.PRB.DL.DrbUsed.Avg.QCI6
Average number of PRBs used by
DRBs on the PDSCH for downlink
QCI6 services
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
1526745981
L.ChMeas.PRB.DL.DrbUsed.Avg.QCI7
Average number of PRBs used by
DRBs on the PDSCH for downlink
QCI7 services
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
1526745982
L.ChMeas.PRB.DL.DrbUsed.Avg.QCI8
Average number of PRBs used by
DRBs on the PDSCH for downlink
QCI8 services
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
1526745983
L.ChMeas.PRB.DL.DrbUsed.Avg.QCI9
Average number of PRBs used by
DRBs on the PDSCH for downlink
QCI9 services
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
1526745984
L.ChMeas.PRB.UL.DrbUsed.Avg.QCI6
Average number of PRBs used by
DRBs on the PUSCH for uplink
QCI6 services
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
1526745985
L.ChMeas.PRB.UL.DrbUsed.Avg.QCI7
Average number of PRBs used by
DRBs on the PUSCH for uplink
QCI7 services
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
1526745986
L.ChMeas.PRB.UL.DrbUsed.Avg.QCI8
Multi-mode: None
Basic Scheduling
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
Average number of PRBs used by
DRBs on the PUSCH for uplink
QCI8 services
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
Basic Scheduling
DACQ
DACQ Enhancement
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
1526745987
L.ChMeas.PRB.UL.DrbUsed.Avg.QCI9
Average number of PRBs used by
DRBs on the PUSCH for uplink
QCI9 services
1526745988
L.Thrp.TransferTime.DL.RmvLastTTI
L.Thrp.TransferTime.DL.RmvLastTTI Multi-mode: None
Downlink PDCP-layer data
GSM: None
transmission duration excluding the UMTS: None
last TTI before the buffer is empty
LTE: LBFD-002008
TDLBFD-002008
LBFD-002025
TDLBFD-002025
Radio Bearer
Management
Radio Bearer
Management
Basic Scheduling
Basic Scheduling
1526746010
L.ChMeas.PRB.UL.DrbUsed.Avg.ExtQci.Index0
Average number of uplink PUSCH
PRBs used by DRBs for services
with an extended QCI of counter
index 0
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
LBFD-002032
TDLBFD-002032
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
Extended-QCI
Extended-QCI
1526746011
L.ChMeas.PRB.UL.DrbUsed.Avg.ExtQci.Index1
Average number of uplink PUSCH
PRBs used by DRBs for services
with an extended QCI of counter
index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
LBFD-002032
TDLBFD-002032
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
Extended-QCI
Extended-QCI
1526746012
L.ChMeas.PRB.UL.DrbUsed.Avg.ExtQci.Index2
Average number of uplink PUSCH
PRBs used by DRBs for services
with an extended QCI of counter
index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
LBFD-002032
TDLBFD-002032
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
Extended-QCI
Extended-QCI
1526746013
L.ChMeas.PRB.UL.DrbUsed.Avg.ExtQci.Index3
Average number of uplink PUSCH
PRBs used by DRBs for services
with an extended QCI of counter
index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
LBFD-002032
TDLBFD-002032
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
Extended-QCI
Extended-QCI
1526746014
L.ChMeas.PRB.UL.DrbUsed.Avg.ExtQci.Index4
Average number of uplink PUSCH
PRBs used by DRBs for services
with an extended QCI of counter
index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
LBFD-002032
TDLBFD-002032
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
Extended-QCI
Extended-QCI
1526746016
L.ChMeas.PRB.DL.DrbUsed.Avg.ExtQci.Index0
Average number of downlink
PDSCH PRBs used by DRBs for
Multi-mode: None
GSM: None
UMTS: None
Basic Scheduling
Basic Scheduling
DACQ
Counter ID
Counter Name
Counter Description
Feature ID
Feature Name
services with an extended QCI of
counter index 0
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
LBFD-002032
TDLBFD-002032
DACQ Enhancement
Extended-QCI
Extended-QCI
1526746017
L.ChMeas.PRB.DL.DrbUsed.Avg.ExtQci.Index1
Average number of downlink
PDSCH PRBs used by DRBs for
services with an extended QCI of
counter index 1
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
LBFD-002032
TDLBFD-002032
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
Extended-QCI
Extended-QCI
1526746018
L.ChMeas.PRB.DL.DrbUsed.Avg.ExtQci.Index2
Average number of downlink
PDSCH PRBs used by DRBs for
services with an extended QCI of
counter index 2
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
LBFD-002032
TDLBFD-002032
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
Extended-QCI
Extended-QCI
1526746019
L.ChMeas.PRB.DL.DrbUsed.Avg.ExtQci.Index3
Average number of downlink
PDSCH PRBs used by DRBs for
services with an extended QCI of
counter index 3
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
LBFD-002032
TDLBFD-002032
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
Extended-QCI
Extended-QCI
1526746020
L.ChMeas.PRB.DL.DrbUsed.Avg.ExtQci.Index4
Average number of downlink
PDSCH PRBs used by DRBs for
services with an extended QCI of
counter index 4
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
TDLBFD-121201
TDLOFD-121206
LBFD-002032
TDLBFD-002032
Basic Scheduling
Basic Scheduling
DACQ
DACQ Enhancement
Extended-QCI
Extended-QCI
1526746066
L.Traffic.DLRec.ContinusPktsLossIndex0.QCI1
Number of times the number of
consecutively lost downlink QCI 1
packets falls into the Index 0 range
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526746067
L.Traffic.UL.ContinusPktsLossIndex0.QCI1
Number of times the number of
consecutively lost uplink QCI 1
packets falls into the Index 0 range
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526746068
L.Traffic.DLRec.ContinusPktsLossIndex1.QCI1
Number of times the number of
consecutively lost downlink QCI 1
packets falls into the Index 1 range
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526746069
L.Traffic.UL.ContinusPktsLossIndex1.QCI1
Number of times the number of
consecutively lost uplink QCI 1
packets falls into the Index 1 range
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
1526746070
L.Traffic.DLRec.ContinusPktsLossTimes.QCI1
Number of calls during which
downlink QCI 1 packets are
consecutively lost in a cell
Multi-mode: None
GSM: None
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
Basic Scheduling
Basic Scheduling
Counter ID
Counter Name
Counter Description
1526746071
L.Traffic.UL.ContinusPktsLossTimes.QCI1
Number of calls during which uplink Multi-mode: None
QCI 1 packets are consecutively lost GSM: None
in a cell
UMTS: None
LTE: LBFD-002025
TDLBFD-002025
15
Feature ID
Glossary
For the acronyms, abbreviations, terms, and definitions, see Glossary.
16
Reference Documents
1. 3GPP TS 23.203: "Technical Specification Group Services and System Aspects; Policy and charging control architecture"
2. 3GPP TS 36.211: "Physical Channels and Modulation"
3. 3GPP TS 36.213: "Physical layer procedures"
4. 3GPP TS 36.306: "User Equipment (UE) radio access capabilities"
5. 3GPP TS 36.321: "Medium Access Control (MAC) protocol specification"
6. Adaptive ICIC Feature Parameter Description
7. DRX and Signaling Control Feature Parameter Description
8. Flexible User Steering Feature Parameter Description
9. MIMO Feature Parameter Description
10. Physical Channel Resource Management Feature Parameter Description
11. Power Control Feature Parameter Description
12. QoS Management Feature Parameter Description
13. TDM eICIC Feature Parameter Description
14. UL CoMP Feature Parameter Description
15. VoLTE Feature Parameter Description
Feature Name
Basic Scheduling
Basic Scheduling