FP7-ICT-2009-4-249142
Fully-Converged Quintuple-Play Integrated Optical-Wireless Access Architectures
Specific Targeted Research Projects
Deliverable D5.4. “Report on off-the-shelf components and user equipment “
Delivery Date:
30/09/2011 (M21)
Date of submission:
31/10/2011
Start date of project:
01/01/2010 (M01)
Duration:
36 months
Lead Participant for this Deliverable
Name:
Fibernova Systems S.L. (FIB)
Contact Person:
Javier Herrera Llorente
Address:
FIBERNOVA, Edificio 8F, Planta 2
Universidad Politécnica de Valencia
46022 Valencia, Spain
Phone:
+34 670 265 516
Fax:
+34 963 562 581
E-mail:
jherrera@fibernova.com
Authors:
Javier Herrera Llorente (FIB), Antonio Ramírez (FIB), José Correcher (FIB),
Jacinto Portillo (FIB) José Sánchez (UPVLC), Maria Morant (UPVLC), Roberto
Llorente (UPVLC), Axel Schmidt (HTW), Dirk Burggraf (HTW), Terry Quinlan
(UESSEX), Mike Parker (UESSEX), Stuart Walker (UESSEX), Pierre Cluzeaud
(TFC)
Participants:
FIB, UPVLC, HTW, UESSEX, TCF
Work Package
WP5
Estimated Person/month:
10
Security:
PU
Nature:
R
Version:
1.0
Number of Pages:
32
Deliverable D5.4
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Deliverable D5.4
ABSTRACT
In this deliverable the different sub-system components and equipments required for the laboratory
demonstrator in WP6 are defined. A comprehensive list of off-the-shelf equipments required to implement all
the services in the FIVER network are listed: GbE-OFDM, WiMAX, LTE and UWB. A detail of the equipments to
be used in the network node and in the user side is defined when required, such as for WiMAX or LTE.
Alternatives to implement these services are also provided when possible, using development kits or laboratory
instrumentation. Also commercially available components and equipments are defined to implement the FIVER
transmission network: optical transmitters for direct and external modulation, optical receivers, optical fibres
and amplifiers, as well as microwave/millimetre-wave components and antennas.
KEYWORD LIST
Off-the-shelf components, user devices, equipments
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Deliverable D5.4
EXECUTIVE SUMMARY
This deliverable defines a list of off-the-shelf components and equipments to implement the laboratory
demonstrator in WP6. For that purpose a comprehensive list of commercially available devices is provided for
the different services and for the transmission subsystems. The definition of the FIVER quintuple play services
requires the specification of the following equipments:
●
●
●
●
GbE-OFDM modem
LTE BS and user terminals
WiMAX BS and CPE
UWB adapters
The definition of the transmission subsystems in the FIVER network requires the specification of the following
components:
●
●
●
Optical lasers, modulators, amplifiers and receivers in the 1550 nm (ITU grid)
Optical fibre for FTTH and In-home infrastructure
Microwave/Millimetre components (amplifiers, filters, combiners, mixers, oscillators) in the 1-2,
2.5-2.7, 3.4-3.6, 3.1-4.9 and 60 GHz frequency bands
Off-the-shelf components and equipments have been identified and detailed as a material list for the WP6 final
demonstrator. Together with the FIVER network architecture and specifications provided in D2.8 “FIVER
network and techno-economic analysis”(M18), low-cost and low-consumption has been the main criterion in
the choice, whenever it was possible. Alternatives to implement the FIVER services have also been detailed,
such as development kits or laboratory instrumentation, for the case of commercial equipments which are
intrinsically an expensive choice, namely the BS required for the LTE or WiMAX services.
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Deliverable D5.4
TABLE OF CONTENTS
ABSTRACT ........................................................................................................................................................ 3
KEYWORD LIST ................................................................................................................................................. 3
EXECUTIVE SUMMARY ..................................................................................................................................... 4
TABLE OF CONTENTS ........................................................................................................................................ 5
LIST OF FIGURES ............................................................................................................................................... 6
LIST OF TABLES ................................................................................................................................................. 6
LIST OF ABBREVIATIONS................................................................................................................................... 7
1.
INTRODUCTION ................................................................................................................................................ 9
2.
GBE-OFDM EQUIPMENT................................................................................................................................ 10
3.
WIMAX EQUIPMENT ..................................................................................................................................... 11
4.
LTE EQUIPMENT ............................................................................................................................................ 13
5.
UWB EQUIPMENT ......................................................................................................................................... 15
6.
CHANNEL SOUNDING EQUIPMENT...................................................................................................................... 18
7.
MICROWAVE/MILLIMETRE-WAVE COMPONENTS.................................................................................................. 19
8.
9.
7.1.
GbE-OFDM microwave components ................................................................................................. 19
7.2.
Radio signals microwave components .............................................................................................. 19
7.3.
Other microwave components .......................................................................................................... 21
7.4.
60-GHz millimetre-wave components ............................................................................................... 21
OPTIC AND OPTOELECTRONIC COMPONENTS ........................................................................................................ 23
8.1.
Laser sources ..................................................................................................................................... 23
8.2.
Photodetectors .................................................................................................................................. 24
8.3.
External modulator ........................................................................................................................... 25
8.4.
Optical fibres ..................................................................................................................................... 25
8.5.
Optical amplifiers .............................................................................................................................. 26
OTHER EQUIPMENT FOR FIVER DEMONSTRATOR ................................................................................................. 27
REFERENCES ................................................................................................................................................... 30
ANNEX. DATASHEETS ..................................................................................................................................... 32
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Deliverable D5.4
LIST OF FIGURES
Figure 1. FIVER network as described in D2.8 ......................................................................................................... 9
Figure 2. FPGA and DAC/ADC evaluation board ................................................................................................... 11
Figure 3. (a) MicroMAX BS and (b) EasyST CPE WiMAX equipment from Airspan ............................................... 11
Figure 4. AirSynergy LTE pico BS from Airspan .................................................................................................... 13
Figure 5. Thor USB wireless adapter for LTE from ST-Ericsson ............................................................................. 14
Figure 6. Wisair UWB wireless adapter ................................................................................................................ 15
Fgure 7. Iogear UWB wireless adapter.................................................................................................................. 16
Figure 8. Veebeam UWB wireless adapter............................................................................................................ 17
Figure 9. Omron WXA-N2SL wide-band antenna .................................................................................................. 17
Figure 10. Simplified 60-GHz UWB platform ......................................................................................................... 22
Figure 11. Fitel FRL15DCW CW laser ..................................................................................................................... 23
Figure 12. Fitel FRL15DDA directly modulated laser with controller mount ........................................................ 24
Figure 13. XPDV2150R photodetector from u2t ................................................................................................... 25
Figure 14. LN-058 Covega MZ-EOM ...................................................................................................................... 26
Figure 15. Lightwaves 2020 small-form amplifiers ............................................................................................... 27
LIST OF TABLES
Table 1. List of equipments and terminals for the quintuple play services .......................................................... 28
Table 2. List of components for the opto-electronic subsystems ......................................................................... 28
Table 3. List components for the fibre infrastructure ........................................................................................... 28
Table 4. List of components for the microwave/millimetre-wave subsystems .................................................... 29
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Deliverable D5.4
LIST OF ABBREVIATIONS
ADC: Analog to Digital Converter
BPSK: Binary Phase Shift Keying
BS: Base Station
CATV: Cable Television
CPE: Customer Premises Equipment
DAC: Digital to Analog Converter
EDFA: Erbium Doped Fibre Amplifier
EVM: Error Vector Magnitude
FDD: Frequency Division Duplexing
FMC: FPGA Mezzanine Card
FPGA: Field Programmable Gate Array
FTTH: Fibre to the Home
GaAs: Gallium Arsenide
GbE: Gigabit Ethernet
HEMT: High Electron Mobility Transistor
IF: Intermediate Frequency
ITU: International Telecommunication Union
LNA: Low Noise Amplifier
LO: Local Oscillator
LTE: Long Term Evolution
LVDS: Low Voltage Differential Signalling
MAC: Medium Access Control Layer
MIMO: Multiple Input Multiple Output
MMIC: Monolithic Microwave Integrated Circuits
MZM: Mach-Zehnder Modulator
OFDM: Orthogonal Frequency Division Multiplexing
OLT: Optical Line Terminal
ONT: Optical Network Termination
QAM: Quadrature Amplitude Modulation
QPSK: Quadrature Phase Shift Keying
PHY: Physical Layer
PLL: Phase Lock Loop
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Deliverable D5.4
RF: Radio Frequency
SMF: Single Mode Fibre
TDD: Time Division Duplexing
UWB: Ultra Wide Band
VHDL: Very High Speed Integrated Circuit Hardware Description Language
WDM: Wavelength Division Multiplexing
WiMAX: Worldwide Interoperability for Microwave Access
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Deliverable D5.4
1. Introduction
As stated in the FIVER DoW, all the required hardware systems are developed in WP5 by means of internal
development or incorporating off-the-shelf components and user equipment. Figure 1 shows the FIVER
architecture to be used in the impairment compensation proof-of-concept according to the description
reported in deliverable D2.8 “FIVER implementation and techno-economic analysis” (M19).
ONT
In-building
Fibre
< 200 m
OLT
RN
λ1
DML λ2
AWG
up to 25 km
λ1
FIVER
adapter
USER DATA
I/Q OFDM
LTE
WiMAX
FPGA
λ2
up to 100 km
FPGA
UWB
ONT
In-building
Fibre
< 200 m
DML λ2
up to 25 km
FIVER
adapter
Figure 1. FIVER network as described in D2.8
The implementation of this architecture in terms of commercially available devices requires equipment for the
following services:
●
●
●
●
GbE-OFDM, modems at the OLT and the ONT
WiMAX, pico- or femto-cell BS at the OLT and CPE at the ONT
LTE, pico- or femto-cell BS at the OLT and user terminal at the ONT
UWB signal generator at the OLT and UWB receiver at the ONT
In addition, a wide range of radio microwave/millimetre-wave and optic/optoelectronic components are also
required to define the OLT and ONT architectures:
●
●
●
●
●
Laser source and photodetector
External modulator
EDFA amplifiers
Optical fibre for FTTH and in-home transmission
Microwave/millimetre-wave amplifiers, filters and mixers
In this deliverable, a full specification of these system equipments and sub-system components is provided, to
be used in the final FIVER laboratory platform demonstrator.
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Deliverable D5.4
2. GbE-OFDM Equipment
Broadband OFDM for optical transmission is still a research area and there is a lack of commercial equipments
for this purpose. Therefore, in FIVER an ad-hoc OFDM signal will be generated and demodulated using highspeed real-time signal processing FPGA and DAC/ADC electronics, which are already commercially available.
The OFDM signal will be transmitted in the IQ format, therefore 2 DACs and 2 ADCs will be required per
modem. For a target bit rate of 1 Gb/s, considering a modulation efficiency of about 1 b/s/Hz in the worst-case
scenario, the sampling rate of each DAC/ADC must be larger than 1 Gsample/s. The chosen chips are the highspeed 1 Gsample/s single-channel 12-bits ADS5400 and 16 bits DAC5681Z from Texas Instruments. In order to
avoid any further electronic development, an evaluation board has been selected: the FMC110 from 4DSP [1].
This board includes 2 DACs and 2 ADCs, the clock generation and distribution at 1 GHz, and the interconnection
port using a FMC LVDS connector.
To implement the real-time signal processing software of the OFDM modulator and demodulator the Xilinx
Virtex-6 LX240T FPGA model, optimized for high-performance logic and digital signal processing with lowpower serial connectivity, has been chosen. Using this chip, the custom implementation of the FFT algorithm
with 124 samples to be operated at 1 GHz sampling rates, uses 1211 registries (1%), 1410 LUTs (1%) and 36
DSPs (4%) of the total available. Here as well, to avoid any further electronic development, an evaluation board
has been selected: the ML605 from Xilinx [2¡Error! No se encuentra el origen de la referencia.]. This board
incorporates the mentioned FPGA chip, the clock generation and distribution circuitry, two FMC LVDS
connectors, and a RJ-45 GbE port with the associated electronics.
Each modem will consist of one ML605 to implement the OFDM software and one FMC110 to perform the
DAC/ADC of I and Q channels. The associated microwave electronics to multiplex and demultiplex the IQ signal
in a single carrier frequency will be described in section 7.
The key features of the ML605 are:
●
●
●
●
●
●
●
FPGA XC6VLX240T-1FFG1156
10/100/1000 Tri-Speed Ethernet
USB Host Port and USB Peripheral Port
200 MHz Oscillator
Two FMC Expansion Ports
ROHS compliant board: 26.7 cm x 12.7 cm
12V wall adapter or ATX power
The key features of the FMC110 are:
●
●
●
●
●
●
●
2-Channels 12-bit 1.0 Gsample/s ADC 2 Vpp
2-Channels 16-bit 1.0 Gsample/s DAC 1 Vpp
Internal clock tree with 1 GHz oscillator
FMC High Pin Count Connector
Front panel 50 ohm SSMC connectors
ANSI/VITA 57.1 compliant card: 89 mm x 78.8 mm
Power supplied through the FMC connector
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Deliverable D5.4
3. WIMAX equipment
There is a wide range of WiMAX products commercially available in the market. However, from the last
experiments in reported in D6.2 it has been stated that products operating in the TDD duplex mode are limited
under fibre transmission at high distances. The maximum gap between the downstream and the upstream
burst determines the maximum transmission distance. The Ruggedcom equipment mentioned in D2.8, which
operates with an extended gap of about 200 us, allows up to 40 km of optical fibre transmission. Therefore, the
equipment for WiMAX transmission in FIVER has to be operated in the FDD duplex mode. There are only a few
devices in the market for FDD transmission: the MicroMAX solution from Airspan [3] has been selected as BS,
whereas the EasyST/ProST [4] from the same company will be used as CPE.
Figure 2. FPGA and DAC/ADC evaluation board
The key features of the MicroMAX and EasyST/ProST are:
●
●
●
●
●
●
●
Carrier frequency in the 3.4-3.6 GHz range
Up to 10 MHz channel size
TDD/FDD operation mode
Advanced MIMO technology
BPSK/QPSK/16-QAM/64-QAM adaptative modulation
Launched power larger than 20 dBm
Fixed and nomadic users
(a)
(b)
Figure 3. (a) MicroMAX BS and (b) EasyST CPE WiMAX equipment from Airspan
In addition to the off-the-shelf BS and CPE equipments, a WiMAX evaluation board has been also identified as
possible solution in the FIVER demonstrator. The Maxim MAX2838EVKIT [5] allows the customization of the
OFDM frame and the transition gap between downstream and upstream.
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Deliverable D5.4
Main features of the MAX2838EVKIT are:
●
●
●
●
●
●
3.3 - 3.9GHz WiMAX fixed and mobile RF Transceiver
-35dB Rx EVM for 64-QAM Signal
2.8dB Receiver Noise Figure
60dB Tx Gain Control Range
94dB Rx Gain Control Range
Programmable Channel Filter, 1.75 to 28MHz
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Deliverable D5.4
4. LTE equipment
Actually there are few pico- or femto-cell LTE off-the-shelf solutions commercially available. Airspan has
recently offered a solution based on the picochip chipset, the AirSynergy Pico BS [6]. This BS operates in the 2.6
GHz band with FDD duplex mode, suitable for the FIVER demonstrator scenario. The key features of the
AirSynergy are:
●
●
●
●
●
●
●
Carrier frequency in the 2.6 GHz
FDD/TDD operation modes
Up to 10 MHz channel size
Transmitter power larger than 20 dBm
QPSK/16-QAM/64-QAM adaptative modulations
MIMO technology
Fixed and mobile users
Figure 4. AirSynergy LTE pico BS from Airspan
In addition to the off-the-shelf solution, a development kit from the main LTE chipset provider has been
identified: the PC9609-700 eNode from Picochip [7]. This is a full hardware and software solution for LTE
femto-cells and integrates baseband, software stack and RF, supporting both TDD and FDD variants of LTE
compliant with 3GPP standards and can be rapidly optimized and customized.
Finally, there are many solutions as LTE user terminal in the market mainly oriented to data transmission such
as modems or USB wireless adapters. The Thor platform from ST-Ericcsson [8] actually offers USB-dongles and
embedded modems with support for both FDD and TDD. Similar devices are available from Motorola or
Samsung. The Motorola Nokia-Siemens 7210 (formerly Motorola 7110) is also an USB dongle [9] operating in
FDD mode at the 2.4 GHz band with channel bandwidths up to 20 MHz and MIMO support.
Common features of these devices are:
●
●
●
●
●
FDD/TDD duplex mode
Up to 100 Mbps downlink and 50 Mbps uplink
LTE quad band supports the 2.4-2.6 GHz band
Support for bandwidth 1.4, 3, 5, 10, 15, 20 MHz
MIMO and Rx diversity
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Deliverable D5.4
Figure 5. Thor USB wireless adapter for LTE from ST-Ericsson
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Deliverable D5.4
5. UWB equipment
In terms of UWB, the Wisair USB wireless adapter set [10] to wirelessly connect the PC/laptop to a remote
projector or monitor could be used, incorporating Wisair’s single chip UWB solution WSR601. These adapters
are able to handle videos up to a resolution of 1400x1050 pixels. Currently, these devices are limited to
Bandgroup 1, i.e. to a frequency range between 3168-4752 MHz. The adapter supports the WiMedia channels
13 to 15 (the European version only supports channel 15), i.e. Fixed-Frequency Interleaving only. The maximum
video resolution is 1280x1024 pixels. The Wisair adapter consists of an USB dongle to be connected to the
PC/laptop and a wireless receiver to be connected to the monitor/beamer as well as to the audio system.
Figure 6. Wisair UWB wireless adapter
Key features of the Wisair kit are:
●
●
●
●
●
3.168 to 4.752 GHz (WiMedia band group 1) PHY channels 9-15
On-board UWB omni-directional antenna
Point-to-Multipoint support
128-bit AES security
Power consumption: 1 Watt @ 5VDC
For tests during the integration phase of the demonstrator, the development kit DV9110 from Wisair could also
be used. This development kit is based on Wisair’s previous two-chip UWB solution, consisting of the Wisair
502 RF chip and the Wisair 531 Baseband/MAC chip. The characteristics of this development kit are quite
similar to the commercial device, but it provides additional information and allows a number of tests. Beside
the Fixed-Frequency Interleaving channels 13 to 15 the DV9110 also supports the Time-Frequency Interleaving
channels 9 and 10. Due to the fact that the DV9110 is connected to the PC/laptop by means of a 100Mbit/s
Ethernet, the resulting data rate is lesser than the possibilities of the UWB radio system, but for demonstration
purposes the maximum data rate is often not the main criterion. The administration of the DV9110 is realized
with a USB connection. After proper configuration, this USB connection is not necessary for normal operation
of the DV9110.
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Deliverable D5.4
Fgure 7. Iogear UWB wireless adapter
Similar devices are available from IoGear and Veebeam. In contrast to the Wisair adapter, the IoGear Wireless
USB to VGA Kit [11] consists of a USB dongle to be connected to the PC/laptop, a wireless receiver to be
connected to the monitor/beamer and a separate reception unit to be connected to the audio system. If there
is no need for audio, the transmission of a video signal to the second monitor or beamer can be realised also
without the audio component. The devices contain in the transmitter unit Realtek’s UWB chipset, i.e. the
WiMedia PHY RTU7010 and the USB and WLP controller RTU7300, in the receiver units Realtek’s single chip
solution RTU7105. The IoGear devices support video resolution up to 1600x1200 pixels (UXGA) or 1680x1050
pixels (WSXGA+). As the Wisair adapter, also the IoGear devices are limited to Bandgroup 1, i.e. to a frequency
range between 3168-4752 MHz, 7 channels are supported (3 Fixed-Frequency Interleaving, 4 Time-Frequency
Interleaving). In contrast to the devices of Wisair and Veebeam, the IoGear devices allow to change the
antennas. The Veebeam devices, containing Veebeam’s own Wireless-USB chips [12], are available in an SD and
in an HD version. Both versions consist of a USB dongle to be connected to the PC/laptop and a wireless
receiver to be connected to the monitor/beamer as well as to the audio system. Using the HD version, the
maximum video resolution is 1920x1080 pixels, when using the HDMI to connect the receiver and the
monitor/beamer. For all devices – Wisair, IoGear and Veebeam – the software installation is quite simple and
the quality of the software in terms of user friendliness and stability is satisfying. In general, there is no
preference for one of these options; any of the three sets can be used for the demonstration
Several antennas for UWB signal transmission will be used together with the development kit, the Omron
WXA-N2SL [13] and the SkyCross 222-1137C [14].
The Omron is a wide-band monopole omni-directional antenna. Main features are:
●
●
●
●
●
UWB Band Group 1 (3.1-4.9 GHz) frequency band
VSWR of <2.5 (3.1-4.9 GHz)
Compact 10x13x1.2 mm size
Linear polarization and a feed impedance of 50 ohms
Gain of 0 dBi max
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Deliverable D5.4
Figure 8. Veebeam UWB wireless adapter
The SkyCross SMT-2TO6MB-A is a wideband azimuth omni-directional. Main features are:
●
●
●
●
●
Frequency range 2.3-5.9 GHz covering the UWB Band Group 1
VSWR <2.0 across the band
Compact 17x20x3 mm size
Linear polarization and a feed impedance of 50 ohms
Gain of 0.7dBi max
Figure 9. Omron WXA-N2SL wide-band antenna
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Deliverable D5.4
6. Channel sounding equipment
The management part of the channel sounding will be implemented in an FPGA, which allows direct control of
the peripheral components. More detailed information about the integration of the channel sounding control
architecture will be included in D5.5 with respect to the ONT as well as in further documents of WP6 with
respect to the OLT.
The size of the channel sounding components is expected to be limited. Depending on the resources necessary
for the GbE-OFDM, it might be possible to integrate these components using the same FPGA, i.e. within the
Xilinx Virtex-6 LX240T of the ML605 board (see chapter 2 above). The component development is not affected
by this decision as long as the same type of FPGA is used. Therefore, the main focus is on Xilinx FPGAs of the
Virtex family, which are planned to be used for the GbE-OFDM and which could be used too for a separate
board for channel sounding. A number of Xilinx prototyping and development boards are available by the
project partners or on the market. The VHDL components for channel sounding can be developed using these
boards, until a final decision about integration of the components into a single board can be made.
The signal will be sampled with the same family of ADCs, in an integrated board provided by 4DSP, using the
sub-sampling technique. The FMC125 [15] or FMC126 [16] are the chosen devices, with sampling ranges from
1.25 to 5 Gsample/s using channel interleaving.
Additional key features of the FMC125 or FMC116 are:
■
■
■
■
4-Channels 1.25 Gsample/s ADC 2 Vpp
Channel interleaving for 2.5 and 5.0 Gsample/s
8 bit resolution for the FMC125 and 10 bit resolution for the FMC126
Internal clock tree with 1.25 GHz oscillator
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Deliverable D5.4
7. Microwave/Millimetre-wave components
7.1.
GbE-OFDM microwave components
The I and Q channels of the complex OFDM signal will be IQ multiplexed and upconverted to the 1-2 GHz band.
For that purpose an IQ mixer from MITEQ has been selected: the IR0102LC1Q [17]. The microwave mixer
incorporates the mixers for the I and Q branches, as well as the 90 degrees hybrid to achieve the quadrature
condition. In addition a local oscillator at the 1.5 GHz frequency is required for each mixer, in this case the
ZX95-2260W+ from Minicircuits [18]. This voltage controlled oscillator provides the required level to operate
the IQ mixer, about 10 dBm at 1.5 GHz, for a relatively low bias voltage of 5 Volts.
The key features of the IR0102 are:
■
■
■
■
RF/LO coverage: 1 to 2 GHz
IF coverage: DC to 500 MHz
Conversion loss: 11 dB typical
Image rejection: 20 dB typical
The key features of the ZX95 are:
■
■
■
■
Frequency range: 1290 to 2260 MHz
Power output: 9.6 dBm @ 1.5 GHz
Voltage tune: 5 V @ 1.5 GHz
Bias power: 5 V and 45 mA
Additionally, to restore the signal level at the receiver side some amplification will be required after the
photodetection and filtering stages. For that purpose a LNA from Minicircuits has been selected: the ZX602534M+ [19¡Error! No se encuentra el origen de la referencia.]. This amplifier provides high gain of about
40 dB in the 1 to 2 GHz band, together with a low noise factor of 3.1 dB and a high compression point of
18 dBm. Therefore this amplifier may be used up to 8 dBm input power while keeping the back-off necessary
for the OFDM signal (larger than the 10 dB clipping ratio)
Finally, some filtering will be required to separate the Gb-OFDM IQ signal from the other signals in the FIVER
transmitter or to reduce the signal noise. The following filters from Minicircuits will be used for this task: VLF400 [20] for the base-band I and Q signals and a combination of the VHF-880 [21] and VLF-1800 [22] to filter
out the IQ signal at 1.5 GHz.
Each modem will use one IR0102 with a ZX95 oscillator to perform the IQ multiplexing and another IR0102 with
a ZX95 oscillator to perform the IQ demultiplexing. A single ZX60 will be used before the IQ demultiplexing
stage. The low pass filter VLF-400 will be used before each DAC and after each ADC, and the combination of
VHF-880 and VLF-1800 as band-pass filter will be used before the IQ demultiplexer and after the IQ multiplexer.
7.2.
Radio signals microwave components
Due to the large dynamic range of the WiMAX equipments, with launched powers larger than 20 dBm and a
receiver sensitivity of -103 dBm, it is likely that amplifiers won't be required in the FIVER scenario, considering
short distances for the radio link as in the open-house demonstrator. In the case that amplification may be
required for the worst-case scenario the ZX60-3800LN+ from Minicircuits [23] will be used. This amplifier
provides a 24 dB gain in the 3.4-3.6 GHz band with a large compression point of 18 dBm and a low noise factor
of 2 dB.
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Deliverable D5.4
Filtering of the WiMAX signal will be required after the signal splitter in both sides of the fiber. A selective
band-pass filter in the band of 3.4-3.6 GHz will be required, with a high rejection ratio of the adjacent signals,
LTE in the 2.8 GHz and UWB in the 3.9 GHz. Although the UWB signal is closer in bandwidth, its low power
makes the LTE the most critical interference. The band-pass filter can be implemented with a combination of a
high-pass and a low-pass filter from the Minicircuits portfolio, the VHF-3100+ [24] and the VLF-3800+ [25].
These are filters with 7 cavities, however if a higher selectivity is required, a cascade of two or more filters will
be employed.
Due to the large bandwidth of the UWB signal, more than one octave, several amplifiers have been identified
for this service. The Minicircuits ZVA-183+ and the Picosecond drivers 5840, 5865 and 5810B provide ultrawideband with high saturation powers. Features of these amplifiers are:
Mini-circuits ZVA-183+ [26]:
●
●
●
●
Super ultra-wideband, 700 MHz to 18 GHz
High output IP3, +33 dBm typ.
Withstands open/short load at 1dB compression point output power
Very good isolation, 75 dB typ.
Picosecond 5865 [27]:
●
●
●
Linear amplifier with 26 dB small signal gain and 12 GHz of bandwidth
High gain with low power dissipation (2.3 watts at 8 Vamp)
Includes bias network, crossing point control & adjustable output voltage
Picosecond 5840 [28]:
●
●
Gains of 10 and 22 dB
Risetimes as fast as 22 ps
Picosecond 5810Bs [29]:
●
●
●
●
Bandwidth: 1.7-2GHz
Max. Power Output: 9 dBm
Noise Figure: 5 dB
Max. Input: 10 dBm (CW)
Additionally, wide-band pass filters will be required to extract the UWB signals from the other services in the
FIVER scenario. For that purpose several filters from the Mini-circuits portfolio have been identified, the VHF3800+ and the VLF-7200+. Main features of these filters are:
VHF-3200+ is designed to let pass the range of frequencies from 4250 to 10000 MHz [30]:
●
●
5 sections
Excellent power handling, 7W
VLF-7200+ is designed to let pass the range of frequencies from DC to 7200 MHz [31]:
●
●
7 sections
Excellent power handling, 8W
Finally, regarding the LTE equipment the situation is similar to WiMAX, with large dynamic ranges when using
commercial devices. Therefore it is also likely that amplifiers for the LTE band won't be required in the FIVER
scenario, considering short distances for the radio link as in the open-house demonstrator. In the case that
amplification may be required for the worst-case scenario the ZQL-2700MLNW+ from Minicircuits [32] will be
FP7-ICT-2009-4-249142
Page 20 of 32
Deliverable D5.4
used. This amplifier provides a 29 dB gain in the 2.4-2.7 GHz band with a large compression point of 25 dBm
and a low noise factor of 1.3 dB. To filter-out the LTE signal in FIVER a selective band-pass filter in the band of
2.4-2.7 GHz is necessary. The Minicircuits VBF-2555+ [33] can be used, with a rejection ratio of the adjacent
GbE-OFDM and WiMAX signals larger than 35 dB.
7.3.
Other microwave components
To combine and split the different signals in FIVER a 1x5 coupler will be used: the ZN4PD1-63W+ from
Minicircuits [34]. This is a 0 degrees four ways combiner/splitter that covers 250 to 6000 MHz, enough
bandwidth to cope with the combined FIVER signals, with a low insertion loss of about 1 dB. In the transmitter
each signal will be injected in one of the insertion ports and the overall signal will be obtained at the sum port.
The operation in the receiver will be reciprocal.
Its most important features are:
●
●
●
●
Wideband, 500 to 5000 MHz
4-way 0 degrees
High isolation, 23 dB typ.
Up to 10W power input as splitter
Additionally, the Minicircuits ZFRSC-183+ 1x2 coupler [35] may be used to combine the FIVER signals with
additional signals or to obtain some signals for additional features, i.e. the channel sounding and estimation.
This power splitter has operates in a different range of frequencies from DC to 18000 MHz
Main features are:
●
●
●
●
7.4.
Wideband, DC to 18000 MHz
2-way 0 degrees
Very good phase unbalance, 1 deg. typ.
Excellent amplitude unbalance, 0.1 dB typ.
60-GHz millimetre-wave components
The 60-GHz proposed system for the UWB extension is depicted in ¡Error! No se encuentra el origen de la
referencia.ure 10. It is composed of a standard WiMedia radio system in combination with a block that
includes the 60-GHz up and down conversion, power amplification, low noise amplification and filtering. Both
blocks are attached to a RF switch circuit which will allow the system to work on the WiMedia channels or at 60
GHz
The WiMedia platform will be based on the WiMedia Alliance Multi-band OFDM PHY v1.1 and MAC v1.0
specifications, the most important features of the module which will be used are the following:
●
●
●
●
●
●
●
Supports three MBOA Group 1 bands centred at 3.43 GHz (TFC5), 3.96 GHz (TFC6), and 4.48 GHz
(TFC7) with a bandwidth of 528 MHz each, with data rates up to 480 Mbps
Supports Transmit Power Control with various transmit power levels,
Supports Distributed Reservation Protocol and Prioritized Contention Access framing formats
Supports the MAC-PHY interface pins that are accessible, with the option of bypassing the MAC
Supports both PCI and DVB-SPI (to carry multiple MPEG transport streams) interfaces
Security support with 128-bit AES/CCM encryption/decryption
Supports Power Save mode
FP7-ICT-2009-4-249142
Page 21 of 32
Deliverable D5.4
Figure 10. Simplified 60-GHz UWB platform
The up- and down-converter main functionality is to provide the conversion of the WiMedia signal with
minimum degradation of the transmission performance. To achieve that, state-of-the-art discrete components
will be used. Performance of all components shall be optimized so that the maximum functionality is obtained.
Expected characteristics of the 60-GHz sub-system are:
●
●
●
●
●
●
●
●
●
Frequency range of 59-64 GHz
IF signal frequency 3-5 GHz
Local oscillator of 56 to 60 GHz
Oscillator stability of 100 MHz and PLL resolution of 50 MHz
Maximum output power (at 1dB compression) +16 dBm
Output back-off about 8 dB
Effective up-/down-conversion gains about 20 dB
Noise figure of 6 dB
Antenna gain larger than 8 dBi
For the implementation of the UWB 60-GHz subsystem in the FIVER demonstrator the following components
have been identified and are ready to use:
●
●
●
●
Vubiq evaluation kit [36]
Endwave full transceiver module [37]
Milisys RF front end module [38]
Hittite full transceiver module [39]
The module that has been selected for the FIVER demonstrator is the model from Hittite. It offers the
possibility of using a transceiver chipset that is made internally by a set of different products that are already
available. The signal up-conversion is performed by means of an active frequency multiplier and the same
frequency is used in the down-conversion. This example of heterodyne transceiver uses a set of GaAs MMIC
circuits that uses HEMT technology.
The chip set consists of a X4 multiplier (the XDH158); a low noise amplifier (ALH382), which is also used as a
driver amplifier in the transmit chain; an image reject mixer (MDB207) with an IF frequency range of DC to 3
GHz (sub-harmonic mixer also available); two RF switches (SDH126); and a power amplifier (ABH209) capable
of 18 dBm output saturated RF power. The LNA noise figure is less than 4 dB across the frequency band.
This design architecture can provide satisfactory spurious signal and phase noise performance, without
increasing the complexity too much. Very important parameter is the frequency stability because of the
stability requirements for WiMedia application which is ±10ppm. Therefore, the reference oscillator used for
the demonstration should have very high stability of 1ppm. Also there is requirement to provide relatively high
level of RF signal to both up and down converters so the outputs should be buffered to levels higher as
+10dBm, which guaranties that this demonstrator shall be no low power device.
FP7-ICT-2009-4-249142
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Deliverable D5.4
8. Optic and optoelectronic components
8.1.
Laser sources
The main characteristics of the laser required in the FIVER demonstrator are low cost, and WDM operation.
Additionally, for the directly modulated transmitter solution, a modulation bandwidth of roughly 5 GHz is
required. High output power, about 20 mW to avoid nonlinear impairments in the optical fibre, is also desired.
Under these requirements, the laser used in the FIVER demonstrator will be a DFB.
The Fitel FRL15DCW will be the laser used in the demonstrator if external modulation is used [40]. It is a cooled
DFB with low driving current and high conversion efficiency, with an output power up to 40 mW. The laser can
be chosen with a 100 or 50 GHz ITU band grid within the C- and L-bands. Low line-width modules are also
available if required and a polarization maintaining fiber pigtail enables to directly connect a modulator
without polarization control.
Figure 11. Fitel FRL15DCW CW laser
Features of the CW DFB laser are:
■
■
■
■
■
Low driving current up to 300 mA
Up to 40 mW optical power
High side mode suppression ratio
100 or 50 GHz ITU-T grid, C and L-band available
High side mode suppression ratio and narrow line-width available
For the case of the directly modulated transmitter, there are a few wide-band lasers for analog applications.
Most of the 1550 nm DFB lasers commercially available reach the 3-4 GHz band, with some solutions with
larger bandwidth for digital transmission at 10 Gb/s. The chosen laser for the FIVER demonstrator is a
commercially available multi-quantum well distributed feedback cooled laser from FITEL, the FRL15DDA [41].
This is an analog modulated laser for narrowcasting applications in CATV networks. The module provides high
output power while maintaining high linearity.
FP7-ICT-2009-4-249142
Page 23 of 32
Deliverable D5.4
Figure 12. Fitel FRL15DDA directly modulated laser with controller mount
Main characteristics of this laser are:
■
■
■
■
■
Modulation bandwidth up to 4 GHz
Very low threshold current of 10 mA with bias current up to 120 mA
High conversion slope of 0.2 W/A
Up to 12 mW output power
Intermodulation levels below -35 dBc
Another promising component for the FIVER demonstrator is the 1550nm DFB prototype 1595LMA already
available from 3S Photonics [42], with an analog bandwidth of 6 GHz. The laser ouputs a 10 mW power for a
low modulation current up to 120 mA. The input impedance is matched to the 50 ohms, and therefore no
microwave adaptation network is required.
Features of the directly modulated laser are:
■
■
■
■
8.2.
Modulation bandwith up to 6 GHz
Low bias current up to 120 mA
Up to 10 mW output power
Low intermodulation levels below -60 dBc for analog applications
Photodetectors
For the optical to electrical conversion the component used in the FIVER demonstrator will be a u2t waveguideintegrated photodiode. The selected devices are the XPDV2150R [43] or the XPDV4120R [44]. These
components are designed for digital but also analogue communication systems with a wide range of
bandwidths, from 35 up to 100 GHz. These photodetectors have an extremely flat frequency response, both in
power and in phase. Its RF optimized design ensures an undisturbed frequency response from DC to the 3-dB
cut-off frequency. Its behaviour is completely linear up to an optical input power of 10 dBm.
Key features of the photodetectors are:
●
●
●
●
●
●
50 and 100 GHz electrical 3dB bandwidth
Flat response up to the cut-off frequency GHz
Well matched 50 Ohm output
Linear response up to 10 dBm
Digital communications as well as microwave photonics
Low bias voltage of 2.8 V
FP7-ICT-2009-4-249142
Page 24 of 32
Deliverable D5.4
Figure 13. XPDV2150R photodetector from u2t
8.3.
External modulator
The transmitter based on the external modulation of a MZM will use the Covega LN-058 [45]. This is a low Vpi
intensity modulator designed for high performance analog transmission in microwave optical links. Operating
frequencies up to 20 GHz are supported, and it is able to work in L and C bands. It is single-ended drive
modulator based on the Mach-Zehnder interferometric architecture, using titanium-infused lithium niobate
substrates.
Key features are:
●
●
●
●
●
●
8.4.
Excellent Performance to 20 GHz
Very Low Vpi (<3.9V at 20 GHz)
Insertion loss about 5 dB
Extinction ratio larger than 20 dB
Long-Term Bias Stability
C and L Band Operation
Optical fibres
For the FIVER demonstrator two types of optical fibre. For the FTTH link between the OLT and the ONU, the
SMF-28-ULL from Corning will be employed. This is a G.652 compliant SMF, which has the lowest loss of any
terrestrial grade fibre with maximum attenuation available between 0.17 and 0.18 dB/km at the 1550 nm
transmission wavelengths.
Specifications of the Corning fibre are [46]:
●
●
●
●
Attenuation at 1550 nm: 0.17-0.18 dB/Km
Mode-Field Diameter at 1550 nm: MFD=10.5±0.5 µm
Dispersion at 1550 nm: D<18 ps/(nm.km)
Maximum Individual Fibre PMD<0.1 ps/√km
FP7-ICT-2009-4-249142
Page 25 of 32
Deliverable D5.4
Figure 14. LN-058 Covega MZ-EOM
In addition to the SMF fibre for the FTTH link, in-home fibre will be deployed using the Clear CURVE fibre also
from Corning. It is a nanostructure based fibre, and can achieve the highest bending performances (bendinsensitive fibres) in the market. Moreover, it is possible to go beyond the existent trade-offs with normal
fibres, and it is fully backward compatible with G.652.A, B and D for coexistence with current optical
communication systems.
Key features of the Corning Clear CURVE fibre are [47]:
●
●
●
●
8.5.
Attenuation at 1550 nm: 0.19-0.20 dB/Km
Mode-Field Diameter at 1550 nm: MFD=9.65±0.5 µm
Dispersion at 1550 nm: D<18 ps/(nm.km)
Maximum Individual Fibre PMD<0.2 ps/√km
Optical amplifiers
As stated in D2.8, amplification using EDFA may be employed in the downstream and the upstream channels.
For that purpose, low-cost un-cooled small-form EDFA is the most preferable options as off-the-shelf
components for the FIVER demonstrator. Lightwaves2020 provides the NOABF [48] and the NOAPF [49]
amplifier solutions for booster, preferable in the upstream, and preamplifier, for the downstream. They are
DWDM amplifiers for access networks designed to amplify up to 8 channels
The main characteristics of the booster are:
●
●
●
●
●
Operating range from 1528 to 1569 nm
Input power from -10 to 0 dBm
Output power from 5 to 15 dBm
Noise figure of 6 dB
Power consumption of 1 W
The main characteristics of the preamplifier are:
●
●
●
●
●
Operating range from 1528 to 1569 nm
Input power from -30 to -10 dBm
Output power from 0 to 10 dBm
Noise figure of 5 dB
Power consumption of 1 W
FP7-ICT-2009-4-249142
Page 26 of 32
Deliverable D5.4
Figure 15. Lightwaves 2020 small-form amplifiers
9. Other equipment for FIVER demonstrator
Although the FIVER demonstrator objective is the use of commercially available off-the-shelf components and
devices, some of the required devices may be quite expensive, and be out of the scope of the project budget,
specifically the BS equipment for WiMAX or LTE. For that purpose laboratory instrumentation has been also
identified to perform these tasks.
The Agilent E4438C vector signal generator [50] can generate LTE or WiMAX signals with the appropriate
license. Signals are generated in the Agilent software and sent to this instrument. An alternative is the
Tektronix AWG7122B arbitrary waveform generator [51]. To demodulate these signals real-time oscilloscopes
can also be used. The Tektronix DPO 71254 [52] oscilloscope allows any advanced waveform analysis, as it has
automated tools to increase measurement throughput or RF and vector signal analysis always aided by a serial
pattern triggering which allows a visual recognition to ease the measures. As an alternative the Infinnium
DSO81204A [53] or DSO91304A [54] real time oscilloscopes from Agilent can be used.
FP7-ICT-2009-4-249142
Page 27 of 32
Deliverable D5.4
10. Conclusions
Here follows a detailed list of the components, equipments and terminals required for the FIVER laboratory
demonstrator. These are off-the-shelf equipment and commercially available components, defined attending
to the FIVER network architecture and specifications. Together with the FIVER network architecture and
specifications provided in D2.8, low-cost and low-consumption has been the main criterion in the choice,
whenever it was possible. Alternatives to implement the FIVER services have also been detailed, such as
development kits or laboratory instrumentation, for the case of commercial equipments which are intrinsically
an expensive choice, namely the BS required for the LTE or WiMAX services.
Table 1. List of equipments and terminals for the quintuple play services
GbE-OFDM
OLT Equipment
ONT Equipment
Alternatives
Xilinx ML605
idem
N/A
4DSP FMC110
LTE
Airspan Airsinergy
ST-Ericcsson USB adapter
Nokia-Siemens USB Adapter
WiMAX
Airspan Micromax BS
Airspan EasyST CPE
Maxim MAX2838EVKIT
Agilent E4438C
Agilent DSO91304A
UWB
Wisair USB adapter
Wisair USB adapter
Iogear USB adapter
Omrom UWB antenna
Omrom UWB antenna
Veebeam USB adapter
Skycross antenna
Channel
sounding
N/A
Xilinx ML605
N/A
4DSP FMC125/126
Table 2. List of components for the opto-electronic subsystems
OLT Equipment
ONT Equipment
Alternatives
Laser CW
Fitel FRL15DCW
N/A
N/A
Laser IM
Fitel FRL15DDA
Fitel FRL15DDA
3SP FOL15DCWD
MZM
Covega LN-058
Idem
N/A
EDFA
Lightwaves2020 OBF
Lightwaves2020 OPF
N/A
Photodetector
U2t XPDV2150R
idem
u2t XPDV4120R
Table 3. List components for the fibre infrastructure
Fibre
FTTH segment
In-house segment
Alternatives
Corning SMF-28 ULL
Corning Clear-CURVE
N/A
FP7-ICT-2009-4-249142
Page 28 of 32
Deliverable D5.4
Table 4. List of components for the microwave/millimetre-wave subsystems
GbE-OFDM
Amplifiers
Filters
Other
Minicircuits ZX60-2534M+
Minicircuits VLF-400+
MITEQ IR0102LC1Q
Minicircuits VHF-880+
Minicircuits ZX95-2260W+
Minicircuits VLF-1800+
LTE
Minicircuits ZQL-2700MLNW+
Minicircuits VBF-2555+
N/A
WiMAX
Minicircuits ZX60-3800LN+
Minicircuits VHF-3100+
N/A
Minicircuits VLF-3800+
UWB
Minicircuits ZVA-183+
Minicircuits VHF-3800+
Picosecond 5840
Minicircuits VLF-7200+
N/A
Picosecond 5865
Picosecond 5810B
Other
Minicircuits ZN4PD1-63W+
Minicircuits ZFRSC-183+
60 GHz
Hitite ALH382
Hitite ABH209
FP7-ICT-2009-4-249142
Hitite MDB207
Hitite XDH158
Hitite SDH126
Page 29 of 32
Deliverable D5.4
REFERENCES
[1] http://www.4dsp.com/FMC110.php
[2] http://www.xilinx.com/products/boards-and-kits/EK-V6-ML605-G.htm
[3] http://www.airspan.com/downloads/MicroMAX-datasheet.pdf
[4] http://www.airspan.com/downloads/WiMAX_Brochure_CPEs-Adjdpdf.pdf
[5] http://www.maxim-ic.com/datasheet/index.mvp/id/5986
[6]http://www.airspan.com/wp-content/plugins/downloadmonitor/download.php?id=Airspan_AirSynergy_Brochure_0211_D.pdf
[7] http://www.picochip.com/page/79/PC9608LTE-Dev-sys
[8] http://www.stericsson.com/products/m700-thor.jsp
[9] http://www.nokiasiemensnetworks.com/portfolio/products/4g-devices
[10] http://www.wisair.com/products/wireless-usb-solutions/wusb-dongle-set/
[11] http://www.iogear.com/product/GUWAVKIT/
[12] http://www.veebeam.com/pages/VeebeamHD.html
[13]http://www.components.omron.com/components/web/pdflib.nsf/0/CEFBAD4471ECA3918625737E00737
C1D/$file/N2-PR_final.pdf
[14] http://www.skycross.com/Products/PDFs/SMT-2TO6MB-A.pdf
[15] http://www.4dsp.com/FMC125.php
[16] http://www.4dsp.com/FMC126.php
[17] http://www.miteq.com/datasheets/MITEQ-IR0102.PDF
[18] http://www.minicircuits.com/pdfs/ ZX95-2260W+.pdf
[19] http://www.minicircuits.com/pdfs/ZX60-2534M.pdf
[20] http://www.minicircuits.com/pdfs/VLF-400.pdf
[21] http://www.minicircuits.com/pdfs/VHF-880.pdf
[22] http://www.minicircuits.com/pdfs/VLF-1400.pdf
[23] http://www.minicircuits.com/pdfs/ZX60-3800LN+.pdf
[24] http://www.minicircuits.com/pdfs/VHF-3100+.pdf
[25] http://www.minicircuits.com/pdfs/VLF-3800+.pdf
[26] http://www.minicircuits.com/pdfs/ZVA-183+.pdf
[27] http://www.iti.iwatsu.co.jp/ja/products/pspl/pdf/amp_5865.pdf
[28] http://www.picosecond.com/objects/5800%20Series%20SPEC-4040052.pdf
[29] http://www.picosecond.com/objects/5810B%20SPEC-4040053.pdf
[30] http://www.minicircuits.com/pdfs/VHF-3800+.pdf
[31] http://www.minicircuits.com/pdfs/VLF-7200+.pdf
FP7-ICT-2009-4-249142
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Deliverable D5.4
[32] http://www.minicircuits.com/pdfs/ZQL-2700MLNW+.pdf
[33] http://www.minicircuits.com/pdfs/VBF-2555+.pdf
[34] http://www.minicircuits.com/pdfs/ZN4PD1-63W+.pdf
[35] http://www.minicircuits.com/pdfs/ZFRSC-183+.pdf
[36] http://www.vubiq.com/60ghz.php
[37] http://www.endwave.com/selectGuide.cfm?prod=tran&mtype=y#TR8
[38] http://www.millisys.com
[39] http://www.hittite.com
[40] http://www.furukawa.co.jp/fitel/english/active/pdf/Cooled/ODC-7R001E_FRL15DCWx-A8x-xxxxx-x_E.pdf
[41] http://www.furukawa.co.jp/fitel/english/active/pdf/Cooled/ODC-4S002D_FRL15DDAx_DWDM.pdf
[42] http://www.3sphotonics.com/data/File/3S%20PHOTONICS/Produits/3SP_1915_LMA_Analog_6GHz.pdf
[43] http://u2t.de/system/files/sites/default/files/DS_XPDV21xxR%28A%29_2v2.pdf
[44] http://u2t.de/system/files/sites/default/files/PDS_XPDV4120R_1v1.pdf
[45] http://www.datasheetdir.com/LN058+download
[46] http://www.corning.com/WorkArea/showcontent.aspx?id=41243
[47] http://www.princetel.com/datasheets/ClearCurve.pdf
[48] http://www.lightwaves2020.com/datasheets/EDFA/noabf.pdf
[49] http://www.lightwaves2020.com/datasheets/EDFA/noapf.pdf
[50] http://www.home.agilent.com/agilent/product.jspx?pn=E4438C&cc=ES&lc=eng
[51] http://www2.tek.com/cmswpt/psdetails.lotr?ct=PS&cs=psu&ci=14056&lc=EN
[52] http://www.tek.com/products/oscilloscopes/dpo70000_dsa70000/
[53] http://www.home.agilent.com/agilent/product.jspx?pn=DSO81204A&cc=ES&lc=eng
[54] http://www.home.agilent.com/agilent/product.jspx?nid=-34748.749305.00&lc=eng&cc=ES
FP7-ICT-2009-4-249142
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Deliverable D5.4
ANNEX. Datasheets
This Annex includes a summary of the datasheets of the main equipment reported in this deliverable that are
available to all FIVER Consortium:
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
■
Virtex-6 FPGA ML605 Evaluation Kit
MicroMAXd Base Station
MiMAX Easy- Self Install CPE for Mobile WiMAX
Wisair USB Adapter Set
SkyCross UWB Antenna
Image Rejection I/Q Mixer IR0102
Mini-circuits VCO ZX95-2260W+
Mini-circuits Amplifier ZX60-2534M
Mini-circuits VLF-400
Mini-circuits VLF-880
Mini-circuits VLF-1400
Mini-circuits ZX60-3800LN+
Mini-circuits VHF-3100+
Mini-circuits VLF-3800+
Mini-circuits ZVA-183+
Picosecond 5865 Driver Amplifier
Picosecond 5800 Series Ultra- Broad Amplifier
Picosecond 5810B BroadBand Amplifier
Mini-circuits VHF-3800
Mini-circuits VLF-7200+
Mini-circuits Low Noise Amplifier ZQL-2700LNW+
Mini-circuits Bandpass Filter VBF-2555+
Mini-circuits Power Splitter / Combiner ZN4PD1-63W+
Mini-circuits Power Splitter / Combiner ZFRSC-183+
VubIQ 60 GHz development System V60DSK01
COVEGA Analog Modulator
Lightwaves Compact Low Cost Booster EDFA
Corning SSMF Optical Fiber
FP7-ICT-2009-4-249142
Page 32 of 32
VIRTEX-6 FPGA ML605 EVALUATION KIT
VIRTEX-6 FPGA ML605 EVALUATION KIT
HIGH-PERFORMANCE, HIGH-SPEED
FPGA DESIGN PLATFORM
What’s Inside the ML605 Evaluation Kit
VIRTEX-6 FPGA ML605 EVALUATION KIT
Accelerated Development
‡ Reference Designs and Demos
- Board Diagnostic Demo
- Base System Reference Design featuring DSP48,
Gigabit Ethernet, DDR3 Memory Controller, DVI,
System Monitor, and Serial Transceiver integration
- PCI Express Gen 2 (x4)
- PCI Express Gen 1 (x8)
- DDR3 Memory Interface
- IBERT
- Multiboot Reference Design, featuring self-test/update
and configuration
- Hardened Memory Controller Reference Design
‡ Reference designs, demos, documentation, and
applications delivered on USB FLASH drive to get
started quickly
‡ ML605 Base Board with the XC6VLX240T-1FFG1156 FPGA
‡ ISE® Design Suite Logic Edition: (device-locked) for
Virtex-6 LX240T FPGA
‡ Documentation
– Hardware Setup Guide
– Getting Started Guide
– Hardware User Guide
– Reference Designs User Guide
‡ Schematics and PCB files
‡ Universal 12V power supply
‡ Cables: 2 USB, 1 Ethernet
‡ DVI to VGA adapter
Accelerate Your Designs – Right Out of the Box
Fewer resources under tighter deadlines,
new standards, and shifting requirements
make for a challenging design environment
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Design teams can spend less time
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Targeted Design Platforms from Xilinx
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The Virtex®-6 FPGA ML605 Evaluation Kit is the Xilinx base platform for developing
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Platform, this new kit provides an integration of hardware, software, IP and preverified reference designs so development can begin right out of the box.
B OAR D F EATU R ES
User Clock
(J55-J58)
DDR3
SFP
Value-Added Productivity
With everything you need in one package, the Virtex-6 FPGA ML605 Evaluation
Kit provides value-added productivity gains that you can’t get from à la carte
development system assemblies. Functional infrastructure that already look like
your basic architecture makes you more productive as you ramp up a new design,
enabling quicker time-to-innovation for differentiating your products versus your
competition. Multiple design examples provide insight and a kick-start on how to
implement system IP to optimize your unique application.
FMC
(LPC)
FMC
(HPC)
Configuration
USB 2.0
Mode Switch
(Host)
12V ATX Power
System ACE
USB 2.0
Address
12V Wall Power
(Device)
GPIO LEDs
System ACE
GPIO DIP Switch (SW1)
Prog (SW4)
SystemACE RST (SW3)
USB to UART (J21)
MGT Clock (J30 & J31)
CPU RST (SW10)
USB JTAG (J22)
PMBus Controller
System Monitor Headers
Ethernet
PMBus (J3)
DVI Output
Integrated, Easy-to-Use Solutions
The Virtex-6 FPGA ML605 Evaluation Kit provides a flexible environment for
higher-level system design including applications which need to implement features
such as DDR3, Gigabit Ethernet, PCI Express®, and other serial connectivity. The
ML605 development board includes industry-standard FMC (FPGA Mezzanine
Card) connectors for scaling and customization to specific applications and markets.
The integration of Xilinx development tools help streamline the creation of
systems that adhere to complex requirements.
For more information, support, documents and reference designs, or to purchase,
please visit www.xilinx.com/ml605
Platform Flash
MGT Port
Push Buttons
(U27)
(J26-J29)
(SW5-SW9)
X8 PCI Express
16x2 LCD Character
BPI Flash
Display
(U4)
Take the NEXT STEP
For more information, support, documents, and reference designs, or to purchase, please visit www.xilinx.com/ml605
Part Number: EK-V6-ML605-G
Corporate Headquarters
Europe
Japan
Asia Pacific Pte. Ltd.
Xilinx, Inc.
2100 Logic Drive
San Jose, CA 95124
USA
Tel: 408-559-7778
www.xilinx.com
Xilinx Europe
One Logic Drive
Citywest Business Campus
Saggart, County Dublin
Ireland
Tel: +353-1-464-0311
www.xilinx.com
Xilinx K.K.
Art Village Osaki Central Tower 4F
1-2-2 Osaki, Shinagawa-ku
Tokyo 141-0032 Japan
Tel: +81-3-6744-7777
japan.xilinx.com
Xilinx, Asia Pacific
5 Changi Business Park
Singapore 486040
Tel: +65-6407-3000
www.xilinx.com
© Copyright 2009 Xilinx, Inc. XILINX, the Xilinx logo, Virtex, Spartan, ISE and other designated brands included herein are
trademarks of Xilinx in the United States and other countries. All other trademarks are the property of their respective owners.
Printed in the U.S.A. PN 2424
Technical Datasheet - Base Stations
MicroMAXd Base Station
(802.16d) highly integrated micro-cell
base station with all-in-one outdoor
packaging of RF and base-band
components. Performance optimized
variants for high density roof-top
deployments and cost optimized
variants for low density / rural
deployments are available.
MicroMAXd is an outdoor solution for
Fixed WiMAX applications with an
Leading fixed WiMAX
Base Station
Standards Compliance
Form Factor
Frequency Bands
MicoMAXd
IEEE802.16-2004
Split Indoor / Outdoor
700 MHz, 1.4, 1.5, 1.9, 2.3, 2.5, 2.7,
3.3-3.8 TDD/FDD, 4.9-5.95 GHz
Channel Size
MicroMAXd is a complete standalone
base station, with a feature-rich and
MicroMAXd
Main Features
Cost optimized for lower density
applications
Modular and scalable architecture
All outdoor integrated baseband
digital processing, radio and
antenna
Up to 16 radios per mast
Supports WiMAX ForumTM
700 MHz, 1.4 GHz, 1.5 GHz, , 1.9 GHz,
2.3 GHz, 2.5 GHz, 2.8 GHz, 3.3 GHz,
3.5 GHz, 3.7 GHz, 4.9 GHz, 5.1 GHz,
5.4 GHz, 5.8 GHz and in 5.9 GHz bands
BPSK/QPSK/16QAM/64QAM
adaptive modulation
Full duplex FDD and TDD operation
Advanced software features
Full IEEE 802.16 QoS service
classes
Full 802.1d transparent bridging
IEEE 802.1q/p VLAN
tagging/untagging
Bridging and routing functionality
The MicroMAXd base station is highly
modular in design and consists of two
main components: the all-outdoor
Base Station Radios (BSR) and the
indoor aggregator Base Station
Distribution Unit (BSDU), or the single
channel Data Adaptor.
Each base station site can contain up
to 16 BSRs, depending on the amount
of available spectrum. Each BSR is
connected to the BSDU via a
100BaseT interface operating over a
Cat5e cable, which carries both data
and power over a distance of 300m
with Cat5e repeater. Each BSDU can
support up to 8 BSRs.
MicroMAXd is designed to support
lower density, rural broadband access,
FFT
scenarios in both licensed (700 MHz,
1.4, 1.5, 1.9, 2.3, 2.5, 2.8, 3.3-3.8 TDD
and FDD, 4.9 and 5.9 GHz) and
unlicensed (5.1, 5.4 and 5.8 GHz) bands.
Duplex Method
Tx Power (Frequency band dependant)
GPS Synchronization
Yes
Dynamic Frequency Selection (DFS)
Yes
Ethernet CS
End to End VLAN (802.1Q)
Network VLAN Traffic Segregation
Supported Usage Scenarios
Authentication
The MicroMAXd base stations is
managed by Netspan, Airspan’s
SNMP based element management
platform.
44 dBm
Distributed
Uplink Sub-Channelization
Network Interface
MicroMAXd operating in unlicensed
bands can be used by Wireless ISPs to
deploy WiMAX easily and cost
256
TDD, FDD
+27 dBm in most bands,
+22 dBm in 4.9-5.95 GHz
Maximum EiRP per sector
One of the key features of the
MicroMAXd BSR is that it requires less
than 28W power, making it ideally
suited for those rural deployments
where power generation and supply
may be a problem.
10, 5, 3.5, 3, 2.75, 2.5, 1.75, 1.5 MHz
Yes
100 bT Ethernet
Yes
Yes
Nomadic, Fixed
PKM
Environmental (outdoor elements)
ETS 300 019-1-4 Class 4.1E
Environmental (indoor elements)
ETS 300 019-1-3 Class 3.2
Network Architecture
PSTN
Internet
HA
ProST
Outdoor CPE
VoIP Integrated Acess Devices
IP
Core
MicroMAX
AAA
ASN Gateway
(ControlMAX)
EasyST
Indoor/Desktop
Self-install CPE
IMS
Billing
DHCP/
DNS
CRM
BRAS
CSN
Note: Specifications are subject to change without notice and are for information purposes only.
MiMAX Easy - Self Install CPE for Mobile WiMAX
Self Install
MiMAX Easy
and EasyST
Find out
more about Airspan’s
products and solutions
IEEE 802.16e Mobile WiMAX Indoor “self-install” CPE
Available in 2.3, 2.5, 3.3-3.8 GHz bands
Self-install WiMAX CPE (indoor WiMAX modem)
Full indoor Non-Line-Of-Sight (NLOS) deployment
Fully nomadic operation - including support of a channel
table to automatically connect to Base Station
MiMAX Easy is an all-indoor CPE
designed for self-install by the end
user whereas the MiMAX Pro is a part
indoor part outdoor CPE which
requires professional installation and
provides superior link budget in
the following countries:
MiMAX Easy is a physically compact
WiMAX CPE designed to operate on
the Mobile WiMAX platform but to be
Europe
For more information about Airspan, its
Finland
products and solutions, please visit our
deployed indoors alongside the end
user's PC or network, typically on a desk.
MiMAX Easy is designed to be installed
by the end user, using a simple-to-use
but sophisticated user interface to
enable optimum positioning without
needing to switch-on the user's PC.
This helps improve service availability
and reliability whilst increasing service
speed and reducing network load.
Poland
website:
Russia
www.airspan.com
United Kingdom
EasyST-2
Americas
IEEE 802.16d Fixed WiMAX Indoor “self-install” CPE
Small form factor and built-in antenna
Available in various bands from 700 MHz to 5.95 GHz
Full indoor Non-Line-Of-Sight (NLOS) deployment
Optional IEEE 802.11 b/g Wi-Fi access point
Optional VoIP base for 1 or 2 POTS lines
Up to 8.5 dBi, 4x90º auto selecting antenna
Full support for sub-channelization (OFDMA on uplink)
United States
or email:
sales@airspan.com
Australia
India
With more than 500 customers
Indonesia
in over 100 countries, Airspan
Japan
has the expertise and experience
Philippines
to deliver the most advanced
Sri Lanka
For Self Install Indoor
Deployments
technology WiMAX solution that
Main Features
will best meet your needs.
Full indoor non-LOS (NLOS)
deployment
User unpacks, plugs in and surfs Installation takes less than 1
minute!
Contact Airspan today!
EasyST is an indoor, self-installable
CPE which operates on the Fixed
WiMAX platform. Much like the
MiMAX Easy, the EasyST is compact,
easy to install by an end-user and can
be conveniently located on a desk.
The EasyST also uses a sophisticated
user interface for best positioning
so optimum RF reception and
transmission is achieved.
EasyWiFi
EasyVoice
The Wi-Fi expansion base provides
full IEEE 802.11b/g Access Point
functionality and turns each EasyST
into an instant hot spot, with the
WiMAX radio interface providing
backhaul for IEEE 802.11b/g clients.
Thanks to IEEE 802.16 QoS built into
the EasyST, Wireless SIP phones can
make high quality, managed VoIP
calls.
Voice and data are supported by the
VoIP expansion base, with 2 voice lines and
an Ethernet port. The unit serves standard
RJ-11 telephone instruments. Battery
backup can provided and uses simple AA
rechargeable NiMH cells. The VoIP
expansion base is managed by Airspan’s
base stations and VoiceMAX solution to
ensure transparent, carrier-class voice
service.
EasyST is designed for combined voice
and data deployments.
CPE. The unit has two stackable
extension base options - one for
Wi-Fi and the other for VoIP and data.
features
Fully Nomadic Operation
Worldwide Headquarters;
Airspan Networks Inc.
777 Yamato Road, Suite 310,
Boca Raton, FL 33431-4408, USA
Tel: +1 561 893 8670 Fax: +1 561 893 8671
Airspan Communications Limited
Cambridge House, Oxford Road,
Uxbridge, Middlesex, UB8 1UN, UK
Tel: +44 (0) 1895 467 100 Fax: +44 (0) 1895 467 101
www.airspan.com
001-0811-006 Rev J
Outdoor Installable CPEs
Outdoor CPE
MiMAX Pro
and ProST
Outdoor subscriber terminals (or CPEs)
available for Fixed or Mobile platforms.
They are designed for rapid and simple
service availability at enhanced
ranges, operating in both LOS and
NLOS propagation environments.
trained personnel in less than one
hour. The operator would deploy the
Both the MiMAX Pro and ProST can be
managed by Airspan's Web-based
management system or Netspan
element manager.
needs to be guaranteed to the end
customer. These units ensure high
Vehicle Mounted
Mobile Radio
Transmitter - MRT
MRT – A revolutionary ruggedized hybrid
device for vehicular mounting and operation
t
t
t
t
t
t
t
MiMAX Pro
Outdoor CPE for IEEE 802.16e mobile WiMAX
Available in 2.3 GHz, 2.5 GHz, 3.3-3.8 GHz bands
Ensures high service availability over long distances
Outdoor and indoor units connected via Power over Ethernet (PoE)
Wide variety of frequencies from 700 MHz up to 5.9 GHz
Powered from outside source or directly from vehicle
Ideal for Public Safety, Transportation and Oil & Gas
Highly ruggedized, meeting extreme environmental standards
Optional Wi-Fi AP capabilities
Local or remote management and software upgrades
Supports Self Provisioning
Airspan has adapted their seasoned
MiMAX Pro is a Mobile WiMAX customer
premises equipment for outdoor
deployment. The MiMAX Pro is designed
for enhanced Internet connectivity.
and Interoperability while incorporating
advanced antenna technology with
directional dual polarization integrated
antenna (MIMO). The unit has a built-in
antenna with 27 dBm Tx power.
The unit has class-leading capabilities
ProST and ProST-WiFi
MRT- Mobile
Radio Transmitter Device
Main Features
Vehicle mounted CPE
Integrated directional antenna or any external antenna
Optional integrated Wi-Fi Access Point functions
Available in wide range of frequencies from 700 MHz to 5.95 GHz
Outdoor and indoor units connected using CAT5e cable
Built-in antenna gain of 17dBi in most of the frequency bands
Industrial strength Wi-Fi AP
Rapid and Simple
External Deployment
Main Features
Suitable for full outdoor Non-LOS
deployment
Available in a wide range of
frequencies
Environmentally hardened design
Designed for outdoor deployment
Compact, light and easy to install
ProST product family has two models:
ProST - delivers WiMAX access
ProST-WiFi - delivers WiMAX
access with integrated Wi-Fi
ProST supports a two piece design
comprising of the outdoor unit (ODU)
which contains the radio, the antenna
and the baseband processor in an
environmentally robust enclosure, and
a family of indoor adapters called
Subscriber Data Adapter (SDA)
designed to support the delivery of a
range of end-user services, including:
1 to 4 Port Switch
4 port with VLAN Port Switching
Integral 802.11b/g WiFi Access
Point (SDA-WiFi)
Integral VoIP IAD (SDA-MSG)
SDA-MSG comprises of the EasyVoice
unit plus a Power Supply Adaptor
(PSA). The SDA-WiFi consists of the
EasyWiFi unit plus PSA.
ProST-WiFi, in addition to the WiMAX
access also supports an outdoor
integrated IEEE 802.11b/g Access
Point inside of the same ProST ODU
enclosure. This solution enables ProSTWiFi to provide outdoor Wi-Fi
coverage with WiMAX backhaul thus
ensuring the rapid rollout of Wi-Fi
Hotzones. ProST-WiFi operates over
the full ProST temperature range and
includes industrial strength IEEE
802.11b/g technology that supports
16 SSIDs per CPE, antenna gain of 2dBi,
Tx power of 16dBm, transparent layer 2
bridge and VLAN support.
WiMAX and Wi-Fi hybrid
Rugged IP-66 rating
Powered directly from vehicle
or outside source
BPSK, QPSK, 16QAM, 64QAM
Operates on a wide variety of
licensed and license-free
frequency bands:
t 700 MHz, 1.5, 1.9, 2.3, 2.5-2.9,
3.3-3.8, 4.9, 5.6, 5.8 and 5.9 GHz
Wi-Fi Operation
t Access Point or Bridge
t Embedded DHCP Server for LAN
applications requiring vehicle
connectivity within their network. A
customized CPE was created which
harnesses the best of existing units in
enabled, vehicle mounted CPE. This
unique unit, called MRT (mobile radio
transmitter), allows for real-time
information exchange, surveillance and
vehicle tracking.
The vehicle mounted CPE
communicates with stationary base
stations deployed in areas such as bus
depots, police lots or along roads and
highways, and in the case of
emergency situations, the unit can
transmit to a nomadic base station.
simultaneously creating a Wi-Fi hot
spot enabling passengers or vertical
market employees to access Wi-Fi
Internet or network connectivity from
a variety of devices. The unit is ideal
for nomadic and vehicular operation.
When mounted in a vehicle, the unit
can either be powered directly from
the vehicle or from an outside source.
The MRT is ideal for any market
needing communication to and from
vehicles. These include, Oil and Gas,
Public Safety, Transportation,
Surveillance, etc., By opening up new
service opportunities and by creating
the environment for vehicular
broadband services everywhere,
Airspan is enabling entities worldwide
to change their business models,
The MRT is a ruggedized hybrid device
integrating WiMAX CPE and Wi-Fi AP
functionalities in a single package
allowing WiMAX connectivity while
Small and easy to install
WiMAX Network
Internet
Bus Depot
MRT colocated
with DVR
Wi-Fi
with the SDA-MSG and SDA-WiFi units.
Network Operation Center
Airspan Base
Station
Train and Passengers
SDA-MSG
SDA-WiFi
MRT wth Wi-Fi
hotspot
Technical Datasheet - End User Devices
EasyST and ProST
No
Mobile WiMAX
Technical Datasheet - End User Devices
MiMAX Easy and MiMAX Pro
MRT
Yes
Standards Compliance
Yes
No
IEEE802.16-2004
IEEE802.16e-2005
Form Factor
EasyST - Indoor Self-Install
ProST - Outdoor
MiMAX Easy - Indoor Self-Install
MiMAX Pro - Outdoor
Frequency Bands
700 MHz, 1.4 GHz 1.5GHz ,
2.3 GHz, 2.5 GHz, 3.3-3.8 GHz
Fixed WiMAX
Standards Compliance
IEEE802.16d-2004
Ruggedized Vehicle Mounted
Form Factor
Frequency Bands
700 MHz, 1.5, 1.9, 2.3,
2.5-2.9, 3.3-3.8, 4.9, 5.6,
5.8 and 5.9 GHz
1.9GHz, 2.3, 2.5, 2.7 GHz,
Duplex Method
3.3-3.8 GHz TDD/FDD variants,
FDD
Tx Power (Frequency band dependant)
Up to 26dBm
4.9GHz-5.95 GHz variants
10MHz, 5MHz, 3.5MHz, 3MHz,
Channel Size
10MHz, 7MHz, 5MHz, 3.5MHz
WI-FI Interface
2.75 MHz, 2.5 MHz 1.75MHz, 1.5 MHz
FFT
Duplex Method
256
1024, 512
TDD, FDD
TDD
Up to +24dBm in most bands
Up to 27dBm
-103dBm
-101dBm
STC
Yes
Yes
MIMO
N/A
Yes
MIMO Matrix Type
N/A
Matrix A, Matrix B
CSM
N/A
Yes
Uplink Sub-Channelization
N/A
Yes
PUSC
Fractional Frequency Reuse
N/A
Yes
N/A
Yes
Tx Power (Frequency band dependant)
Rx Sensitivity
Ethernet CS
Yes
Yes
IP CS
N/A
Yes
IP version support
IPv4
IPv6, IPv4
10/100bT Ethernet, WiFi, POTS
10/100bT Ethernet
User Interface
Wi-Fi Modes
DHCP or Static IP
DHCP Server
Embedded DHCP Server for LAN
Standards
IEEE 802.11b/G
FCC
FCC Part 15, Class A
EN
300 325 2.4 GHz
TELEC
STD-33/STD-66
Security
WEP, WPA TKIP, WPA2 AES
SSID Limit
16
Max TX Power
16dBm
Wired Interface
Device Type
Transparent Layer 2 Switched Bridge
Standards
IEEE 802.3/Ethernet & 802.1Q VLAN using Ipv4
Device Type
4-Port Switch
Connector Type
from an integrated RGW
Yes
Yes
Supported Usage Scenarios
Nomadic, Fixed
Mobile, Portable, Nomadic, Fixed
N/A
Yes
DES, AES
AES
PKMv2
EAP-TLS, EAP-TTL
RJ-45, Auto Switching
Data Rate
End to End VLAN (802.1q)
Handover Supported
Access Point or Bridge
WAN LAN Provisioning
10/100 MB, Auto Sensing
Environmental EMC Safety
Operating Temperature
Encryption
-40° to 55°C / -40° to 131°F
Storage Temperature
Authentication
-40° to 80°C / -40° to 131°F
Humidity
0 to 95% @ 40°C / 104°F, non-condensing
IP Rating
IP66
Shock
30G (Per SAE-J1455, MIL-STD-202G, 213-1, Condition J)
Vibration (random)
02PSD (Per SAE-J1455, MIL-STD-202G, Table 214-I, Condition A)
Shock
ETS EN 301 489-4, FCC Class A
Vibration (random)
IEC60950-1, EN60950-1, TUV
Note: Specifications are subject to change without notice and are for information purposes only.
Note: Specifications are subject to change without notice and are for information purposes only.
Product Summary
Find out
Base Station Products
more about Airspan’s
MacroMAXe
Highly integrated macro-cell base station with all-in-one outdoor packaging of RF and baseband
components. Includes dual RF transceivers for 2Tx 4Rx support; Supports MIMO Matrix A and B
HiperMAX
Split architecture base station which incorporates MIMO, beamforming and high availability.
Designed to deliver optimum capacity and net throughput for Fixed and Mobile WiMAX
applications in both FDD and TDD.
MicroMAXd
Cost effective, highly modular base station designed for lower density deployments and
micro-cell/pico-cell applications in both FDD and TDD.
products and solutions
End User Devices
MiMAX USB
A revolutionary multi-band USB device that turns any laptop into a Mobile WiMAX client
thus enabling user mobility and roaming. Single band variants are also available
MiMAX Easy
Self-install Subscriber Station for mobile WiMAX offering MIMO Matrix A and B benefits.
MiMAX Pro
Outdoor Subscriber Station for mobile WiMAX offering MIMO Matrix A and B benefits.
For more information about Airspan, its
EasyST
A revolutionary indoor, self-install WiMAX Subscriber Station with optional IEEE 802.11b/g
Wi-Fi and Voice over IP (VoIP) add-ons.
products and solutions, please visit our
EasyWiFi
An IEEE 802.11b/g Wi-Fi Access Point, which tightly integrates with the EasyST to create a
combined WiMAX-WiFi unit for residential use.
EasyVoice
A residential gateway unit with 2 VoIP ports and 1 Ethernet port that integrates with the EasyST
to create a combined voice and data WiMAX Subscriber Station with VoIP and Ethernet ports.
ProST
An environmentally hardened outdoor Subscriber Station developed to provide superior link
budget performance in difficult deployment conditions. Requires professional installation.
Delivers VoIP services when used with SDA-MSG (Multi-Services Gateway).
ProST-WiFi
Airspan has sales offices in
the following countries:
Europe
Finland
Poland
website:
Russia
www.airspan.com
United Kingdom
Americas
or email:
United States
sales@airspan.com
Asia Pacific
A ProST with a Wi-Fi Access Point integrated into the same outdoor enclosure. Enables
integrated WiMAX and Wi-Fi applications in outdoor public spaces.
Australia
With more than 500 customers
India
Indonesia
Network Products
in over 100 countries, Airspan
ControlMAX
Airspan’s Core Network product family, consisting of the ControlMAX Gateway and ControlMAX AAA
ControlMAX Gateway
Japan
has the expertise and experience
Airspan’s Access Services Network (ASN) gateway product family which includes the ST-40 and the
AN-1 products. An essential component of any Mobile WiMAX network.
Philippines
to deliver the most advanced
Sri Lanka
ControlMAX AAA
Airspan’s AAA and policy product family. An essential component of any Mobile WiMAX CSN.
technology WiMAX solution that
VoiceMAX
Enables WiMAX networks to deliver robust SIP based services such as VoIP and video, with
integrated Admission Control for ensuring carrier-class voice quality.
will best meet your needs.
Contact Airspan today!
Network Management Products
Netspan
A comprehensive element management solution that manages Airspan’s WiMAX network elements.
Glossary
ASN
ATCA
BWA
CPE
CSN
FDD
IMS
LNA
MAC
MIMO
MRC
NLOS
Access Service Network
Advanced Telecommunications
Computing Architecture
Broa dba nd W ireless Access
Customer Premises Equipment
Connectivity Service Network
Frequency Division Duplex
IP Multimedia Subsystem
Low Noise Amplifier
Media Access Control Layer
Multiple Input Multiple Output
Maximal Ratio Combining
Non Line of Sight
OBSAI
OFDM
OFDMA
PHY
SAS
SDMA
SDR
SIP
SOFDMA
STC
TDD
VoIP
Open Base Station Standard Initiative
Orthogonal Frequency Division Multiplexing
Orthogonal Frequency Division
M ultiplexing ( M ultiple Access)
PHYsical Layer
Smart Antenna System
Spatial Division Multiple Access
Software Defined Radio
Session Initiation Protocol
Scalable OFDMA
Space-Time Coding
Time Division Duplex
Voice over IP
Worldwide Headquarters;
Airspan Networks Inc.
777 Yamato Road, Suite 310,
Boca Raton, FL 33431-4408, USA
Tel: +1 561 893 8670 Fax: +1 561 893 8671
www.airspan.com
Airspan Communications Limited
Cambridge House, Oxford Road,
Uxbridge, Middlesex, UB8 1UN, UK
Tel: +44 (0) 1895 467 100 Fax: +44 (0) 1895 467 101
001-0107-006 Rev J
19-4221; Rev 0; 7/08
o On-Board Line Driver and Voltage Reference
o 50 SMA Connectors on All RF and Baseband Ports
o PC Control Software Available at
www.maxim-ic.com/evkitsoftware
Ordering Information
PART
TYPE
MAX2838EVKIT+
EV Kit
+Denotes lead-free and RoHS compliant.
Component List
DESIGNATION
QTY
DESIGNATION
DESCRIPTION
C3, C8, C24, C28,
C30, C33, C38,
C41–C44, C47,
C75, C77
0
C4–C7, C10, C13,
C17, C18, C40,
C45, C46, C59,
C60, C67
14
0.1μF ±10% ceramic capacitors
(0402)
Murata GRM155R61A104K
C9, C16, C31,
C70, C74, C86,
C89
7
0.033μF ±10% ceramic
capacitors (0402)
Murata GRM155R71A333K
C11, C23, C26,
C32
4
C37, C39
Not installed, capacitors
C48, C49
C68, C69
0.01μF ±10% ceramic capacitors
(0402)
Murata GRM155R71E103K
4
10μF ±10% tantalum capacitors—
R-case
AVX TAJR106K006R
1
2200pF ±10% ceramic capacitor
(0402)
Murata GRM155R71H222K
2
0.15μF ±10% ceramic capacitors
(0402)
Murata GRM155R61A154K
3
1.0μF ±10% ceramic capacitors
(0805)
Murata GRM155R60J105K
C25
1
1000pF ±5% ceramic capacitor
(0402)
Murata GRM1555C1H102J
C27
1
2.2μF ±10% tantalum capacitor—
R-case
AVX TAJR225K006R
C12, C53, C55,
C66
C14
C19, C88
C20, C29, C35
QTY
DESCRIPTION
2
2.2μF ±10% ceramic capacitors
(0603)
Murata GRM188R61A225K
2
3.3pF ±0.1pF ceramic capacitors
(0402)
Murata GRM1555C1H3R3B
2
4.7pF ±0.1pF ceramic capacitors
(0402)
Murata GRM1555C1H4R7B
C79
1
120pF ±5% ceramic capacitor
(0402)
Murata GRM1555C1H121J
C81, C83
2
2.4pF ±0.1pF ceramic capacitors
(0402)
Murata GRM1555C1H2R4B
J17
0
Not installed, 2 x 13-pin header
J18
1
DB25 horizontal male PCB
connector
AMP 5747238-4
L1
1
2.2nH ±0.1nH inductor (0402)
Murata LQP15MN2N2B02
L2, L4, L5
0
Not installed, inductors
L7
1
4.7nH ±0.1nH inductor (0402)
Murata LQP15MN4R7B02
R1, R7
2
200Ω ±1% resistors (0402)
R2, R5, R6, R38
4
205Ω ±1% resistors (0402)
R3, R10
2
226Ω ±1% resistors (0402)
R4, R26
2
49.9Ω ±1% resistors (0402)
MAX2838 Evaluation Kit
Evaluates: MAX2838
The MAX2838 evaluation kit (EV kit) simplifies testing of
the MAX2838 receive and transmit performance in
WiMAX™ applications operating in the 3.3GHz to
3.9GHz ISM band. The EV kit provides 50 SMA connectors for all RF and baseband inputs and outputs.
Differential to single-ended and single-ended to differential line drivers are provided to convert the differential
I/Q baseband inputs and outputs to single ended.
Features
Evaluates: MAX2838
MAX2838 Evaluation Kit
General Description
Component List (continued)
DESIGNATION
QTY
DESCRIPTION
R8, R11, R15, R19,
R23, R24, R25,
R27, R28, R30,
R35, R39, R41,
R43, R45–R50,
R52–R64, R66
0
R12, R31, R40,
R42, R65, R67
0
R20, R51
2
750Ω ±5% resistors (0402)
R21, R22
2
61.9Ω ±1% resistors (0402)
R33, R36
2
1kΩ trimmer potentiometers
Bourns 3296W-1-102LF
R34
1
620Ω ±5% resistor (0402)
R37
1
301Ω ±1% resistor (0402)
R44
1
10Ω ±5% resistor (0402)
R68
1
0Ω ±5% resistor (0402)
T1, T2
2
3.6GHz RF baluns
Murata LDB213G6010C-001
Not installed, resistors
Not installed, resistors
T3
1
4.5GHz RF balun
Murata LDB184G5010C-110
U1, U3
2
Low-noise differential ADC drivers
ADI AD8139ARDZ
U2, U6
2
Maxim MAX4444ESE+
(16 narrow SO)
U4
1
Maxim MAX2838ETM+
(48 Thin QFN-EP,
6mm x 6mm x 0.8mm)
U7
1
Low-dropout linear regulator
Maxim MAX8887EZK29+
(5 SOT23)
U8, U9
2
SN74LVTH244ADB
Texas Instruments
SN74LVTH244ADBR
U10
1
Low-dropout voltage reference
Maxim MAX6062AEUR+
(3 SOT23)
U11
1
40MHz TCXO
Kyocera
KT3225N40000ECV28ZAA
U13
1
Ultra-low-noise LDO
Maxim MAX8510EXK29+
(5 SC70)
U14
0
Not installed, ultra-low-noise LDO
DESIGNATION
QTY
B1–B7, CSB, DIN,
DOUT, ENABLE,
PABIAS, RXHP,
RXTX, SCLK,
TPCLKOUT,
TPSPIDOUT,
TXENOUT/RSSI,
VCM
DESCRIPTION
19
Test points, PCB mini-red
Keystone 5000
CLKCOUT, RXBBI,
RXBBQ, RXRF,
TXBBI, TXBBQ,
TXRF, VCOIO
8
SMA edge-mount connectors,
round
Johnson 142-0701-801
FREF
0
Not installed, SMA edge-mount
connector
GND1, GND2
2
Test points, PCB black
Keystone 5011
JPB1–JPB7,
JPSHDNB,
RXBBBUF
9
1 x 3-pin headers
Sullins PEC36SAAN
JP2CSB,
JPENABLE,
JPRXHP, JPRXTX,
JPSHDNB,
JPSPICLK,
JPSPIDIN
0
Not installed, 1 x 3-pin headers
VCCCP, VCCDB,
VCCDIG, VCCLNA,
VCCLO, VCCPAD,
VCCREF, VCCRXFL,
VCCRXMX,
VCCRXVGA,
VCCTCXO,
VCCTXMX,
VCCVCO, JPRXBBI+,
JPRXBBI-,
JPRXBBQ+,
JPRXBBQ-,
JPTXBBI+, JPTXBBI-,
JPTXBBQ+,
JPTXBBQ-, TUNE
0
Not installed, 1 x 2-pin headers
+5V, -5V, VBAT,
VCCAUX
4
Test points, PCB red
Keystone 5010
—
8
Shunts (JPB1–JPB7, RXBBBUF)
Sullins SSC02SYAN
—
1
MAX2838 EV Kit+ PCB
WiMAX is a trademark of WiMAX forum.
________________________________________________________________ Maxim Integrated Products
2
1
_______________________________________________________________________________________
For pricing, delivery, and ordering information, please contact Maxim Direct at 1-888-629-4642,
or visit Maxim’s website at www.maxim-ic.com.
SUPPLIER
PHONE
Analog Device
800-262-5643
WEBSITE
www.analog.com
Digi-Key Corp.
800-344-4539
www.digikey.com
Keystone Electronics Corp.
800-221-5510
www.keyelco.com
Murata Mfg. Co., Ltd.
770-436-1300
www.murata-northamerica.com
Note: Indicate that you are using the MAX2838 when contacting these component suppliers.
Quick Start
Recommended Test Equipment
This section lists the recommended test equipment to
verify the operation of the MAX2838. It is intended as a
guide only and substitutions may be possible:
• DC supply capable of delivering +5V and 250mA of
continuous current
• DC supply capable of delivering -5V and 250mA of
continuous current
• DC supply capable of delivering +3.3V and 250mA
of continuous current
• One HP 8648 or equivalent signal source capable of
generating 0dBm up to 3.9GHz
• Two HP or equivalent arbitrary waveform generators
• One HP 8561E or equivalent RF spectrum analyzer
with a minimum 100kHz to 3GHz frequency range
• One TDS3012 or equivalent oscilloscope with
200MHz bandwidth
• One HP 437B power meter and power head
• A user-supplied Windows® 95/98/2000/XP (or later)
PC with an available parallel port
• One female-to-male 25-pin parallel straight-through
cable
Connections and Setup
The MAX2838 EV kit is fully assembled and factory tested. Follow the instructions below to test the devices.
This section provides step-by-step instructions for getting the EV kit up and running in all modes:
1) Install and run the MAX2838 control software.
Select MAX2838 for MAXIM IC type under Options.
2) To control the EV kit through the 4-wire interface,
connect the female-to-male 25-pin parallel straightthrough cable between the PC and the EV kit.
3) With the power supply turned off, connect the +3.3V
power supply to VBAT and VCCAUX. Connect the
power-supply ground to the header labeled GND.
4) With the power supply turned off, connect the +5V
power supply to the +5V pin and the -5V power
supply to the -5V pin. Connect the power-supply
ground to the header labeled GND. Connect all the
power-supply grounds together.
5) Set the RXBBBUF jumper across pins 1-2 to enable
the Rx baseband buffers.
MAX2838 Evaluation Kit
Evaluates: MAX2838
Component Suppliers
Evaluates: MAX2838
MAX2838 Evaluation Kit
4) Press the SEND ALL button.
5) In the Registers panel of the software, set ENABLE
and RXTX to be 1 to activate the receive path.
6) In the RX panel of the software, toggle the LNA gain
enable and the baseband VGA enable both to be
SPI. Set both of the gain controls to be max.
7) Turn on the RF signal source. The output CW tone
at 1MHz should be approximately 0dBm.
Transmit Mode
1) Connect the spectrum analyzer to the TXRF port.
Set the center frequency to be 3600MHz and the
span to be 5MHz.
2) Connect a 1MHz I/Q signal to pins TXBBI and
TXBBQ, respectively. Set the input amplitude of
each channel to 90mVRMS with 90 degrees phase
shift.
3) In the Registers panel of the software, set ENABLE to
be 1 and RXTX to be 0 to activate the transmit path.
4) In the Registers panel of the software, enter the recommended register setting shown in Figure 2.
5) Press the Send All button.
6) Enable the output of the baseband signal sources.
The desired tone, LO leakage, and the sideband
appear at 3601MHz, 3600MHz, and 3599MHz,
6) Turn on the +3.3V power supply, and the +5V and
-5V power supplies.
7) In the Enables panel of the software, check the
EN_SPI box to enable the 3-wire interface.
8) Adjust the Tx common-mode potentiometer (R36)
until measuring 0.9V common-mode voltage at the
VCM test point.
9) In the Registers panel of the software, set ENABLE
to 0 and RXTX to 1 to put the IC into standby mode.
10) In the Synth panel of the software, set the LO frequency to 3600MHz.
Receive Mode
1) Use the power meter to calibrate the RF signal generator to deliver -98dBm at 3601MHz. After calibration, turn the RF signal generator off, disconnect it
from the power meter, and connect it to the RXRF
port of the MAX2838 EV kit.
2) Connect either the I or the Q baseband output to a
spectrum analyzer. Set the center frequency to be
1MHz and the span to be 1MHz.
3) In the Registers panel of the software, enter the recommended register setting shown in Figure 1 for
operating the MAX2838 in steady-state receive
mode bench measurement. This setup fixes the
VGA highpass corner at 1kHz.
Figure 1. Receive Mode Register Setting
Windows is a registered trademark of Microsoft Corp.
_______________________________________________________________________________________
3
4
_______________________________________________________________________________________
To minimize coupling between different sections of the
IC, use a “star” power-supply routing configuration with
a large decoupling capacitor at a central VCC node.
The VCC traces branch out from this node, each going
to a separate VCC node in the circuit. Place a bypass
capacitor as close to each supply pin as possible. This
arrangement provides local decoupling at each VCC
pin. Use at least one via per bypass capacitor for a lowinductance ground connection. Do not share the
capacitor ground vias with any other branch.
MAX2838 Evaluation Kit
Evaluates: MAX2838
Layout Considerations
The MAX2838 EV kit can serve as a guide for board
layout. Keep PCB trace lengths as short as possible to
minimize parasitic inductance. Also, keep decoupling
capacitors as close to the IC as possible with a direct
connection to the ground plane.
Power-Supply Layout
Evaluates: MAX2838
MAX2838 Evaluation Kit
respectively. In the TX panel of the software, toggle
TXVGA to be SPI. Set the Tx VGA gain to be 3dB
back from the max gain. The power level of the
desired tone is approximately -1.5dBm in the spectrum analyzer marker reading, assuming that the
balun on board contributes a 1dB loss.
Figure 2. Transmit Mode Register Setting
Figure 3a. MAX2838 EV Kit Schematic (Sheet 1 of 2)
_______________________________________________________________________________________
5
6
MAX2838 Evaluation Kit
Evaluates: MAX2838
Figure 3b. MAX2838 EV Kit Schematic (Sheet 2 of 2)
_______________________________________________________________________________________
Evaluates: MAX2838
MAX2838 Evaluation Kit
_______________________________________________________________________________________
Figure 4. MAX2838 EV Kit PCB Layout—Top Silkscreen
7
8
_______________________________________________________________________________________
Wireless USB Adapter Set
MAX2838 Evaluation Kit
Product Brief
Evaluates: MAX2838
s
User Benefits
Overview
Eliminates cable clutter and allows placing
The Wisair Wireless USB Adapter Set allows users to
‘upgrade’ existing USB devices to Wireless USB.
Consisting of a pair of Wireless USB adapters—one
for the device and one for the PC—the solution
brings Wireless USB connectivity to a range of
devices, such as hard disk drives, printers and hubs.
peripherals anywhere in the room
s
Supports a wide range of USB devices- printers,
scanners, external hard disks, DVD/CD, iPod, etc.
s
s
s
s
s
Single SKU of both adapters for worldwide
deployment
Key Features
s
Superior performance and range, with full room
coverage
s
Wireless USB connectivity with
simple setup and no network
configuration
Production-ready, fully certified solution
The Wireless USB adapter set incorporates the
WSR601 single CMOS chip, and an on-board Ultra
Wideband antenna. Using Wisair’s UltraSpeed
technology, the adapter set identifies the USB class
of the attached device to optimize performance.
What is Included
s
Wireless USB PC Adapter
Pre-associated (paired) adapters
s
Wireless USB Device Adapter
UltraSpeed technology for
optimized performance
s
USB Table Base (type A)
s
Power Supply Unit
s
Quick Start Guide
s
Installation CD with software, drivers,
Compliance to worldwide
regulation with single SKU
s
Windows® 7/ Vista™SP2/ XP® SP3
s
Certified by the USB-IF
Wireless USB connectivity is enabled by attaching
the PC Adapter to the PC/notebook. The Device
Adapter is attached to the USB port of the device
and to an external power supply.
The adapter set has received regulatory approval in
the US, Japan, Korea, and Europe, and is certified by
the USB-IF.
and softcopy manual
Figure 9. MAX2838 EV Kit PCB Layout—Bottom Silkscreen
Maxim cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in a Maxim product. No circuit patent licenses are
implied. Maxim reserves the right to change the circuitry and specifications without notice at any time.
Maxim Integrated Products, 120 San Gabriel Drive, Sunnyvale, CA 94086 408-737-7600 ____________________ 13
© 2008 Maxim Integrated Products
is a registered trademark of Maxim Integrated Products, Inc.
Your PC. Your Peripherals. Wirelessly.
www.wisair.com
antenna products
Wireless USB Adapter Set
SMT-2TO6M
Product Brief
Antenna element
2.3-5.9 GHz
Ultra-Wideband Antenna
SMT-2TO6MB-A
Assembly including antenna element, PCB
Device Adapter
and female SMA connector as shown
PC Adapter
Features
• Highest efficiency for given size and bandwidth
• >5 bands in a single antenna including WiMAX and WLAN
• Common materials and simple fabrication techniques
Device Adapter
Power
Electrical Specifications
Table Adapter
Frequency Range
Gain
VSWR
Polarization
Radiation Pattern
Feed Impedance
USB Connection
Specifications
About Wisair
Wisair is a fabless semiconductor
Device Adapter
company providing Ultra Wideband
(UWB) and Wireless USB solutions
s
based on its CMOS single chip.
Recognized
for
their
superior
s
WiMedia certified PHY and MAC, USB-IF Certified
connectivity to any USB device
s
Pre Associated Adapters for easy out of
consumption
for
Wireless
USB.
Antenna Element
Assembly PCB
On-board UWB omni-directional antenna
s
PCB size — 18mm x 48mm
s
Point-to-Multipoint support
Area of PCB that is Ground
s
Single LED — Power/Traffic
s
3.168 to 4.752 GHz (WiMedia band group 1)
Antenna Element Weight
s
Power consumption: 1 Watt @ 5VDC
s
PHY channels 9-15
s
Power Supply Unit
solutions offer the best combination
of performance, price, and power
Mechanical Specifications
Standards
USB type-A male with table adapter, enabling
s
coverage and throughput, Wisair’s
the box experience
PC Adapter
s USB type-A male
Return Loss
General
s
128-bit AES security
2.3-5.9 GHz
>0.7 dBi peak across 2.3-5.9 GHz
<2.0:1 across 2.3-5.9 GHz
Linear
Azimuth Omni-directional
50 Ohms Unbalanced
s
Integrated 3D swivel connector
s
Regulation compliant to US, Japan, Europe, Korea
s
On-board UWB omni-directional antenna
s
Software drivers: Windows® 7/ Vista™SP2/ XP® SP3
s
PCB size — 18mm x 48mm
s
Operating temperature range: 0-40 C
s
Single LED — Power/traffic
s
Power consumption: 1 Watt @ 5VDC
0.67 x 0.79 x 0.12 in
17.0 x 20.0 x 3.0 mm
2.362 x 1.181 x .04 in
60.0 x 30.0 x 1.0 mm
1.173 x 1.181 in
44.0 x 30.0 mm
0.5 g
VSWR
0
© Wisair 2009. Wisair is a registered trademark of Wisair Ltd. All other product or service names are the property of their respective owners. The cotent of this document and the features mentioned may be modified by Wisair and at any time without prior notice.
All antenna measurements are taken in free space. Results may vary depending on the particular implementation.
www.wisair.com
Your PC. Your Peripherals. Wirelessly.
2-2930
SMT-2TO6MB-A
2.3-5.9 GHz
Ultra-Wideband Antenna
SMT-2TO6MB-A
Peak Gain
2.3-5.9 GHz
Ultra-Wideband Antenna
Diagrams Below are at 2.3 GHz
Elevation Cut
Phi=0 Degrees
Elevation Cut
Phi=90 Degrees
Azimuth Cut
Theta=90 Degrees
Efficiency
Spherical Gain Contour Map at 2.3 GHz
Orientation
= 0º
Z
Footprint
M
= 0º
= 90º
r
X
= 90º
= 90º
Y
= 180º
2-2930
SMT-2TO6MB-A
2.3-5.9 GHz
Ultra-Wideband Antenna
SMT-2TO6MB-A
Phi=0 Degrees
2.3-5.9 GHz
Ultra-Wideband Antenna
Diagrams Below are at 3.55 GHz
Diagrams Below are at 2.5 GHz
Elevation Cut
2-2930
Elevation Cut
Phi=90 Degrees
Azimuth Cut
Theta=90 Degrees
Spherical Gain Contour Map at 2.5 GHz
Elevation Cut
Phi=0 Degrees
Elevation Cut
Phi=90 Degrees
Azimuth Cut
Theta=90 Degrees
Spherical Gain Contour Map at 3.55 GHz
2-2930
2-2930
2.3-5.9 GHz
Ultra-Wideband Antenna
SMT-2TO6MBM-A
Diagrams Below are at 4.9 GHz
Elevation Cut
2.3-5.9 GHz
Ultra-Wideband Antenna
SMT-2TO6MB-A
Diagrams Below are at 5.9 GHz
Phi=0 Degrees
Elevation Cut
Phi=90 Degrees
Azimuth Cut
Theta=90 Degrees
Elevation Cut
Phi=0 Degrees
Elevation Cut
Spherical Gain Contour Map at 4.9 GHz
Phi=90 Degrees
Azimuth Cut
Theta=90 Degrees
Spherical Gain Contour Map at 5.9 GHz
www.skycross.com
SkyCross has many offices worldwide.
Visit us online to find an office near you.
© 2009 SkyCross, Inc. SkyCross is a registered trademark of SkyCross, Inc. All rights reserved. Protected by one or more
US Patents. Additional US and foreign patents pending. Specification subject to change without notice.
2-2930
2-2930
1 TO 2 GHz IMAGE REJECTION OR I/Q MIXERS
IR0102LC1B TYPICAL TEST DATA
VSWR
(LO = +10 dBm)
MODELS: IR0102LC1A, IRO102LC1B, IRO102LC1C AND IRO102LC1Q
IMAGE REJECTION/CONVERSION LOSS
(LO = +10 dBm/IF = 60 MHz)
5:1
VSWR (RATIO)
• RF/LO coverage ................ 1 to 2 GHz
• IF operation ....................... DC to 0.5 GHz
• Conversion loss................ 6.5 dB typical
4:1
3:1
• Image rejection ................. 23 dB typical
LO
RF
2:1
1:1
8
11
1
1.2
1.4
1.6
0
1.8
2.0
1.8
2
20
30
50
1.2
1.4
1.6
FREQUENCY (GHz)
1.8
2.0
MAXIMUM RATINGS
Specification temperature.................... +25°C
Operating temperature ........................ -54 to +85°C
Storage temperature .......................... -65 to +125°C
1
1.2
1.4
1.6
FREQUENCY (GHz)
GENERAL NOTE
1. Standard catalog unit aligned and tested for guaranteed
RF > LO performance. RF < LO guaranteed performance
is available, please contact MITEQ.
OUTLINE DRAWINGS
IR0102LC1A, B and C
IR0102LC1Q
RF CONNECTORS SMA FEMALE
(TYP. 4 PLACES)
.500 [12.70]
UNITS
MIN.
IR0102LC1A
IR0102LC1B
IR0102LC1C
MHz
MHz
MHz
20
40
100
40
80
200
IF frequency (QIFM, I/Q demodulator mode)
IR0102LC1Q
MHz
DC
500
RF
IN
LO IN
2.000 [50.80]
1.000 [25.40]
1.000 [25.40]
RF
IN
RF<LO
TERMINATE UNUSED IF OUTPUT
FINISH: NICKEL
.250 [6.35]
.500 [12.70]
IMAGE REJECTION
LO IN
1.750 [6.35]
2.000 [50.80]
Q
.075 [1.91]
.250 [6.35]
.250 [6.35]
2.350 [59.69]
2.350 [59.69]
MOUNTING HOLES .100 [2.54] DIA. THRU
(TYP. 4 PLACES)
HAUPPAUGE, N.Y. 11788
MADE IN USA
1.000 [25.40]
1.750 [6.35]
250 [6.35]
I
1.000 [25.40]
MAX.
1.5:1
.500 [12.70]
250 [6.35]
RF>LO
RF CONNECTORS SMA FEMALE
(TYP. 4 PLACES)
2.500 [63.50]
2.500 [63.50]
CONDITION
Ratio
2
image rejection (IF Options A, B and C), phase and amplitude balance (IF Option Q).
IF frequency (image rejection mode)
IF VSWR (IF = -10 dBm)
1.8
NOTE: Test data supplied at 25°C; conversion loss, LO-to-RF isolation,
±1.5
±12.5
RF < LO RF > LO
0
-90
-90
0
TYP.
1.4
1.6
FREQUENCY (GHz)
LO-TO-RF ISOLATION
(LO = +10 dBm)
40
1
.075 [1.91]
OUTPUT PARAMETERS
1.2
S/N XXXXXX
PORT
I
Q
MAX.
6.5
9.5
8.5
23
40
20
+6
+10
+15
+16
+20
+25
1
M/N XXXXXX
Amplitude balance
Phase balance
Truth table
18
30
TYP.
2
MOUNTING HOLES .100 [2.54] DIA. THRU
(TYP. 4 PLACES)
FINISH: NICKEL
.250 [6.35]
.500 [12.70]
QIFM, I/Q DEMODULATOR
NOTE: All dimensions shown in brackets [ ] are in millimeters.
100 Davids Drive, Hauppauge, NY 11788 • TEL: (631) 436-7400 • FAX: (631) 436-7430 • www.miteq.com
100 Davids Drive, Hauppauge, NY 11788 • TEL: (631) 436-7400 • FAX: (631) 436-7430 • www.miteq.com
IMAGE REJECTION MIXER PRODUCTS
Input two-tone third-order intercept point
dBm
dB
dB
RF < LO
dB
dB
dB
IR0102LC1
dBm
IR0102MC1
dBm
IR0102HC1
dBm
IR0102LC1
dBm
IR0102MC1
dBm
IR0102HC1
dBm
IR0102LC1Q
dB
IR0102LC1Q
Degrees
IR0102LC1Q
+12
+15
+18
2.5:1
2
+13
+16
+20
1.8
ISOLATION (dB)
MIN.
RF > LO
IR0102LC1Q
Single-sideband noise figure
Image rejection (Note 1)
LO-to-RF isolation
LO-to-IF isolation
Input power at 1 dB compression
IMAGE REJECTION MIXER PRODUCTS
UNITS
2:1
1
+10
+13
+17
25
12.5
0
-12.5
-25
1.4
1.6
FREQUENCY (GHz)
IF OUT
CONDITION
Conversion loss (Note 1)
MAX.
2
IMAGE REJECTION
40
10
HAUPPAUGE, N.Y. 11788
MADE IN USA
TRANSFER CHARACTERISTICS
TYP.
30
AMPLITUDE AND PHASE BALANCE
(I/Q, LO = +10 dBm)
M/N XXXXXX
LO VSWR
MIN.
1
1.2
S/N XXXXXX
IR0102LC1
IR0102MC1
IR0102HC1
UNITS
GHz
Ratio
GHz
dBm
dBm
dBm
Ratio
AMPLITUDE
BALANCE (dB)
CONDITION
PHASE
BALANCE (DEG.)
ELECTRICAL SPECIFICATIONS
INPUT PARAMETERS
RF frequency range
RF VSWR (RF = -10 dBm)
LO frequency range
LO power range
CONVERSION LOSS
20
50
1
3
1.5
0
-1.5
-3
10
CONVERSION LOSS (dB)
FEATURES
IMAGE REJECTION (dB)
0
Coaxial
Voltage Controlled Oscillator
ZX95-2260W+
Performance Data & Curves*
1290 to 2260 MHz
V
TUNE
TUNE SENS
(MHz/V)
Features
CASE STYLE: GB956
Applications
•R&D
• LAB
• Instrumentation
• Digital TV / UHF band
• Radar receiver
• Satellite systems
Connectors
Model
Price
Qty.
SMA
ZX95-2260W-S+
$49.95 ea.
(1-9)
+ RoHS compliant in accordance
with EU Directive (2002/95/EC)
The +Suffix has been added in order to identify RoHS
Compliance. See our web site for RoHS Compliance
methodologies and qualifications.
Electrical Specifications
POWER
PHASE NOISE
TUNING
NON
HARMONICS PULLING PUSHING
DC
OUTPUT dBc/Hz SSB at offset
HARMONIC
(dBc)
pk-pk
(MHz/V)
OPERATING
(dBm)
frequencies,kHz
VOLTAGE SENSI- PORT
3 dB
SPURIOUS
@12 dBr
POWER
RANGE TIVITY CAP MODULATION
(dBc)
(MHz)
Typ.
(V)
(MHz/V) (pF) BANDWIDTH
Vcc Current
(MHz)
(volts) (mA)
Typ.
+9.2
1
10
100 1000
-74 -100 -121 -141
Min. Max.
0.5
20
Typ.
Typ.
Typ.
Typ.
Typ.
Max.
Typ.
Typ.
48 - 79
60
35
-90
-20
-10
1.5
1.8
ZX95-2260W+
HARMONICS (dBc)
F2
F3
F4
FREQ. FREQ.
PUSH PULL
(MHz/V) (MHz)
PHASE NOISE (dBc/Hz)
at offsets
1kHz
10kHz
100kHz
1MHz
1159.4
1210.0
1254.6
1296.3
1336.1
1142.3
1194.3
1239.1
1280.8
1320.7
1128.0
1181.5
1226.2
1267.9
1307.5
8.62
8.59
8.44
8.71
8.64
9.17
9.23
9.03
9.29
9.34
9.39
9.51
9.38
9.47
9.63
35.14
35.33
35.49
35.65
35.82
-15.8
-16.1
-15.8
-16.3
-16.6
-17.0
-17.5
-17.7
-18.4
-19.2
-30.2
-30.5
-30.0
-29.7
-29.3
0.65
0.91
1.09
1.21
1.35
0.89
1.25
1.19
1.24
1.31
-72.5
-75.2
-74.9
-74.5
-74.0
-98.6
-98.9
-98.9
-99.5
-100.0
-119.4
-119.7
-119.8
-120.4
-120.4
-139.1
-139.5
-139.5
-140.2
-140.4
1.0
2.0
3.5
6.0
8.5
-74.33
-83.53
-89.99
-95.71
-99.21
3.00
4.00
6.00
7.00
8.00
74.79
73.31
69.69
68.17
66.89
1413.0
1488.0
1631.3
1700.3
1767.4
1397.5
1472.0
1615.8
1684.8
1752.2
1384.1
1458.5
1602.2
1671.4
1739.0
8.63
9.04
9.17
9.33
9.22
9.36
9.60
9.73
9.89
9.54
9.69
9.74
9.84
9.99
9.58
36.14
36.39
36.81
36.85
36.83
-16.9
-18.1
-16.5
-16.2
-16.5
-20.4
-21.8
-24.0
-25.6
-26.4
-26.5
-25.7
-24.5
-24.1
-32.5
1.62
1.87
2.11
2.17
2.12
1.28
1.45
1.06
1.27
1.52
-74.8
-75.4
-75.2
-75.7
-74.1
-99.9
-100.1
-101.1
-100.5
-101.2
-120.9
-121.0
-121.9
-122.0
-122.5
-140.9
-141.1
-141.9
-141.9
-142.2
10.0
20.8
35.5
60.7
86.7
-100.89
-108.20
-113.09
-117.83
-121.20
8.50
9.00
10.00
12.00
14.00
65.74
65.57
65.10
62.06
56.44
1800.6
1833.4
1898.6
2026.0
2146.4
1785.7
1818.6
1883.9
2011.8
2132.6
1772.8
1805.9
1871.7
2000.0
2121.1
9.30
9.25
8.97
8.62
8.14
9.79
9.74
9.56
9.22
8.58
9.72
9.75
9.55
9.24
8.55
36.78
36.78
36.61
36.34
36.13
-16.8
-17.0
-18.0
-21.0
-26.8
-27.0
-27.5
-28.4
-32.5
-32.8
-36.4
-32.0
-28.7
-31.7
-34.2
2.07
2.06
1.86
1.45
0.97
1.56
1.64
1.35
0.92
1.90
-74.3
-74.4
-74.6
-72.2
-69.2
-101.0
-101.0
-100.8
-99.6
-98.1
-122.6
-122.7
-122.5
-121.7
-120.5
-142.4
-142.5
-142.7
-142.0
-140.9
100.0
148.1
177.0
211.6
302.4
-122.40
-125.84
-127.37
-128.92
-132.25
15.50
16.00
17.00
18.50
20.00
51.50
49.89
44.98
36.60
27.96
2229.1
2255.2
2303.6
2367.5
2417.9
2215.5
2241.2
2289.8
2353.4
2403.4
2204.2
2230.2
2278.8
2342.0
2392.2
7.57
7.37
7.41
6.86
6.43
8.15
7.89
7.87
7.44
7.03
8.14
7.91
7.74
7.47
7.05
36.00
35.93
35.86
35.71
35.61
-30.7
-31.3
-31.1
-29.0
-28.5
-35.7
-34.4
-49.7
-26.0
-25.2
-40.5
-43.5
-43.9
-48.3
-56.7
0.62
0.52
0.18
0.17
0.00
0.47
2.38
0.38
0.38
2.38
-70.7
-70.1
-70.6
-72.1
-73.3
-98.3
-97.9
-98.1
-98.3
-99.1
-120.3
-119.9
-120.2
-120.1
-120.7
-140.7
-140.6
-140.9
-140.6
-141.1
361.5
507.5
606.7
851.6
1000.0
-133.78
-136.56
-138.22
-141.12
-142.45
*at 25oC unless mentioned otherwise
Max.
5
45
Maximum Ratings
6+59+2)<=
Outline Drawing
! ?
! ?
! ?
#""?
Permanent damage may occur if any of these limits are exceeded.
'&
%
(6132/)7+:+0
'&
%
3;+698498
'&
%
6+59+2)<(2*#92/2-"+27/8/:/8<
Operating Temperature
-55°C to 85°C
Storage Temperature
-55°C to 100°C
Absolute Max. Supply Voltage (Vcc)
7V
Absolute Max. Tuning Voltage (Vtune) 22V
All specifications
50 ohm system
?
?
?
'&
%
6+59+2)<900/2-97./2-$))>
900/2-
97./2-=$
A
B
C
D
E
F
G
H
J
K
L
M
N
P
Q
R
S
T
WT.
1.20 .75
.46 1.18 .04 .38 .45
.57 .18 .33 .21 .22 .18 1.00 .50 .35 .18 .106 GRAM
30.48 19.05 11.68 29.97 1.02 9.65 11.43 14.48 4.57 8.38 5.33 5.59 4.57 25.40 12.70 8.89 4.57 2.69
35.0
97./2-
.(7+3/7+*)=
900/2-=
)
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=
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REV. OR
M125861
EDR-9165F2
ZX95-2260W+
RAV
100214
Page 1 of 2
#92/2-$308(-+$
#92/2-$308(-+$
'&
%
.(7+3/7+$7#92/2-$308(-+
Outline Dimensions (
#92/2-$308(-+$
#92/2-$308(-+$
.(7+3/7+*)=
inch
mm
FREQ
PHASE
OFFSET NOISE at
(KHz) 1775 MHz
(dBc/Hz)
104.10
89.61
83.37
79.70
77.47
(6132/)7*)
Min. Max.
ZX95-2260W+ 1290 2260
Icc
(mA)
0.00
0.50
1.00
1.50
2.00
984983;+6*1
FREQ.
(MHz)
POWER OUTPUT
(dBm)
-55°C +25°C +85°C -55°C +25°C +85°C
• Wide band frequency range
• High power output, +9.2 dBm typ.
• Low phase noise
• Low pulling
• Low pushing
• Protected by US patent 6,790,049
MODEL
NO.
FREQUENCY
(MHz)
#92/2-"+27/8/:/8<=$
Wide Band
""!%$)$$"%$#$#$( "##)#$$$## $#$"$$(%$" "$$## $#$$"# $#
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Connectorized
ZX60-2534M+
ZX60-2534M
Amplifier
50Ω
0.5 to 2.5 GHz
V+ = 5.0V
Features
•
•
•
•
•
•
From 2.8V to 5V Operation
High Directivity, 24 dB Typ.
Wide Bandwidth, 0.5 to 2.5 GHz
Low Noise Figure, 3.1 dB Typ.
Output Power, Up to 18 dBm Typ.
Protected by US Patent 6,790,049
CASE STYLE: GA955
Applications
•
•
•
•
•
•
Buffer Amplifier
Cellular
PCN
Lab
Instrumentation
Test Equipment
Connectors
Model
Price
Qty.
SMA
SMA
ZX60-2534M-S+
ZX60-2534M-S
$64.95 ea.
$64.95 ea.
(1-9)
(1-9)
+ RoHS compliant in accordance
with EU Directive (2002/95/EC)
The +suffix identifies RoHS Compliance. See our web site for
RoHS Compliance methodologies and qualifications.
Electrical Specifications at TAMB = 25oC
MODEL
NO.
FREQ.
(GHz)
GAIN over frequency in GHz
Typ (dB)
DC
VOLTAGE
@ Pin V+
(V)
0.5
1.0
1.5
2.0
2.5
fL- fU
ZX60-2534M (+)
ZX60-2534M+
ZX60-2534M
Typical Performance Data at 25oC
MAXIMUM
DYNAMIC
POWER
RANGE
(dBm)
Output
(1 dB Comp.) NF
IP3
Min.at
Typ.
(dB)
(dBm)
2 GHz
fL
fU
Typ.
Typ.
VSWR
(:1)
Typ.
In
Out
DC
ACTIVE
DIRECTIVITY OPERATING
CURRENT @
(dB)
Pin V+
Isolation-Gain
(mA)
Typ.
Typ.
Max.
1GHz
1GHz
2GHz
5.0
31.7 39.4
39.4
38.4 35.9
34.0
18.0 15.9
3.1
30.0
27.8
1.3
1.5
25
153
185
2.8
28.9 35.2
34.9
34.6 32.8
31.0
13.8 14.0
3.1
25.4
24.6
1.3
1.8
23
141
185
FREQUENCY
(MHz)
GAIN
(dB)
500
560
680
800
860
31.31
34.33
36.96
38.13
38.60
1000
1100
1160
1280
1400
DIRECTIVITY
(dB)
VSWR
IN
(:1)
VSWR
OUT
(:1)
POWER OUT @1dB
COMPRESSION
(dBm)
IP3
(dBm)
NF
(dB)
42.97
39.91
35.75
32.69
31.26
2.28
2.05
1.77
1.60
1.52
3.11
2.65
2.01
1.65
1.53
17.54
18.41
19.15
19.06
18.86
30.41
31.09
31.74
31.72
31.54
3.52
3.42
3.23
3.18
3.11
39.31
39.67
39.73
39.70
39.49
27.91
25.59
24.30
22.14
20.75
1.37
1.27
1.21
1.13
1.09
1.36
1.29
1.26
1.20
1.16
18.24
17.80
17.57
17.21
16.98
30.85
30.26
29.90
29.22
28.66
3.07
3.05
3.02
2.99
2.94
1460
1500
1580
1700
1760
39.47
39.24
39.15
38.85
38.53
20.37
20.23
20.19
20.54
20.78
1.09
1.09
1.11
1.16
1.18
1.15
1.14
1.13
1.13
1.14
16.90
16.86
16.79
16.69
16.64
28.42
28.29
28.07
27.86
27.81
2.95
2.94
2.95
3.00
2.94
1880
2000
2060
2360
2500
38.32
38.23
38.30
36.64
35.29
21.07
20.75
20.28
17.33
21.18
1.21
1.19
1.16
1.06
1.45
1.19
1.27
1.33
1.60
1.64
16.50
16.30
16.19
15.66
15.58
27.76
27.79
27.81
27.89
27.86
2.97
3.03
3.04
3.14
3.18
VSWR
IN
(:1)
VSWR
OUT
(:1)
POWER OUT @1dB
COMPRESSION
(dBm)
IP3
(dBm)
NF
(dB)
0.5-2.5
V+ = 2.8V
Maximum Ratings
Operating Temperature
Storage Temperature
DC Voltage
Input Power (no damage)
Power
o
o
-40 C to 80 C case
-55oC to 100oC
7V
-15dBm
1W
Outline Drawing
FREQUENCY
(MHz)
GAIN
(dB)
DIRECTIVITY
(dB)
500
560
680
800
860
28.16
30.73
32.94
33.88
34.47
48.01
44.40
39.00
35.01
33.31
2.42
2.19
1.89
1.71
1.63
3.31
2.83
2.20
1.87
1.78
13.61
14.33
15.12
15.36
15.36
24.20
24.90
25.75
26.04
26.05
3.59
3.49
3.31
3.21
3.15
1000
1100
1160
1280
1400
34.64
34.89
34.78
34.70
34.52
29.84
27.74
26.66
24.91
23.78
1.46
1.35
1.28
1.17
1.08
1.66
1.61
1.59
1.54
1.49
15.22
15.09
15.01
14.88
14.79
25.84
25.58
25.41
25.07
24.79
3.10
3.07
3.05
3.02
2.95
1460
1500
1580
1700
1760
34.81
34.41
34.60
34.47
34.12
23.44
23.29
23.13
23.13
23.15
1.06
1.05
1.04
1.05
1.07
1.45
1.43
1.39
1.35
1.33
14.75
14.73
14.68
14.60
14.55
24.68
24.62
24.52
24.45
24.44
2.99
2.99
3.00
2.97
3.01
1880
2000
2060
2360
2500
34.21
34.38
34.39
33.48
32.29
23.06
22.57
22.14
20.15
23.09
1.10
1.13
1.13
1.15
1.40
1.34
1.41
1.46
1.88
2.07
14.43
14.27
14.19
13.85
13.83
24.46
24.51
24.53
24.54
24.44
3.01
3.05
3.07
3.18
3.25
Outline Dimensions ( inch
mm )
A
B
C
D
E
F
G
H
J
K
L
1.20 .75 .46 1.18 .04 .17 .45 .59 .33 .21 .22
30.48 19.05 11.68 29.97 1.02 4.32 11.43 14.99 8.38 5.33 5.59
M
N
P
Q
R
S
.18 1.00 .50 .35 .18 .09
4.57 25.40 12.70 8.89 4.57 2.29
wt.
grams
35.0
'.)''#$/&-')#
.
')+"$()')%&*(**!'(("& '&$"&*"&""),"+*-*"+
REV. B
M111067
EDR-6380
ZX60-2534M
RAV/URJ
070422
page 1 of 3
'.)''#$/&-')#
.
')+"$()')%&*(**!'(("& '&$"&*"&""),"+*-*"+
page 2 of 3
Connectorized
ZX60-2534M+
ZX60-2534M
Amplifier
50Ω
0.5 to 2.5 GHz
V+ = 5.0V
Features
•
•
•
•
•
•
From 2.8V to 5V Operation
High Directivity, 24 dB Typ.
Wide Bandwidth, 0.5 to 2.5 GHz
Low Noise Figure, 3.1 dB Typ.
Output Power, Up to 18 dBm Typ.
Protected by US Patent 6,790,049
CASE STYLE: GA955
Applications
•
•
•
•
•
•
Buffer Amplifier
Cellular
PCN
Lab
Instrumentation
Test Equipment
Connectors
Model
Price
Qty.
SMA
SMA
ZX60-2534M-S+
ZX60-2534M-S
$64.95 ea.
$64.95 ea.
(1-9)
(1-9)
+ RoHS compliant in accordance
with EU Directive (2002/95/EC)
The +suffix identifies RoHS Compliance. See our web site for
RoHS Compliance methodologies and qualifications.
Electrical Specifications at TAMB = 25oC
MODEL
NO.
FREQ.
(GHz)
GAIN over frequency in GHz
Typ (dB)
DC
VOLTAGE
@ Pin V+
(V)
0.5
1.0
1.5
2.0
2.5
fL- fU
ZX60-2534M (+)
ZX60-2534M+
ZX60-2534M
Typical Performance Data at 25oC
MAXIMUM
DYNAMIC
POWER
RANGE
(dBm)
Output
(1 dB Comp.) NF
IP3
Min.at
Typ.
(dB)
(dBm)
2 GHz
fL
fU
Typ.
Typ.
DC
ACTIVE
DIRECTIVITY OPERATING
CURRENT @
(dB)
Pin V+
Isolation-Gain
(mA)
VSWR
(:1)
Typ.
In
Out
Typ.
Typ.
Max.
1GHz
1GHz
2GHz
5.0
31.7 39.4
39.4
38.4 35.9
34.0
18.0 15.9
3.1
30.0
27.8
1.3
1.5
25
153
185
2.8
28.9 35.2
34.9
34.6 32.8
31.0
13.8 14.0
3.1
25.4
24.6
1.3
1.8
23
141
185
FREQUENCY
(MHz)
GAIN
(dB)
500
560
680
800
860
31.31
34.33
36.96
38.13
38.60
1000
1100
1160
1280
1400
DIRECTIVITY
(dB)
VSWR
IN
(:1)
VSWR
OUT
(:1)
POWER OUT @1dB
COMPRESSION
(dBm)
IP3
(dBm)
NF
(dB)
42.97
39.91
35.75
32.69
31.26
2.28
2.05
1.77
1.60
1.52
3.11
2.65
2.01
1.65
1.53
17.54
18.41
19.15
19.06
18.86
30.41
31.09
31.74
31.72
31.54
3.52
3.42
3.23
3.18
3.11
39.31
39.67
39.73
39.70
39.49
27.91
25.59
24.30
22.14
20.75
1.37
1.27
1.21
1.13
1.09
1.36
1.29
1.26
1.20
1.16
18.24
17.80
17.57
17.21
16.98
30.85
30.26
29.90
29.22
28.66
3.07
3.05
3.02
2.99
2.94
1460
1500
1580
1700
1760
39.47
39.24
39.15
38.85
38.53
20.37
20.23
20.19
20.54
20.78
1.09
1.09
1.11
1.16
1.18
1.15
1.14
1.13
1.13
1.14
16.90
16.86
16.79
16.69
16.64
28.42
28.29
28.07
27.86
27.81
2.95
2.94
2.95
3.00
2.94
1880
2000
2060
2360
2500
38.32
38.23
38.30
36.64
35.29
21.07
20.75
20.28
17.33
21.18
1.21
1.19
1.16
1.06
1.45
1.19
1.27
1.33
1.60
1.64
16.50
16.30
16.19
15.66
15.58
27.76
27.79
27.81
27.89
27.86
2.97
3.03
3.04
3.14
3.18
VSWR
IN
(:1)
VSWR
OUT
(:1)
POWER OUT @1dB
COMPRESSION
(dBm)
IP3
(dBm)
NF
(dB)
0.5-2.5
V+ = 2.8V
Maximum Ratings
o
Operating Temperature
Storage Temperature
o
-40 C to 80 C case
-55oC to 100oC
DC Voltage
Input Power (no damage)
Power
7V
-15dBm
1W
Outline Drawing
FREQUENCY
(MHz)
GAIN
(dB)
DIRECTIVITY
(dB)
500
560
680
800
860
28.16
30.73
32.94
33.88
34.47
48.01
44.40
39.00
35.01
33.31
2.42
2.19
1.89
1.71
1.63
3.31
2.83
2.20
1.87
1.78
13.61
14.33
15.12
15.36
15.36
24.20
24.90
25.75
26.04
26.05
3.59
3.49
3.31
3.21
3.15
1000
1100
1160
1280
1400
34.64
34.89
34.78
34.70
34.52
29.84
27.74
26.66
24.91
23.78
1.46
1.35
1.28
1.17
1.08
1.66
1.61
1.59
1.54
1.49
15.22
15.09
15.01
14.88
14.79
25.84
25.58
25.41
25.07
24.79
3.10
3.07
3.05
3.02
2.95
1460
1500
1580
1700
1760
34.81
34.41
34.60
34.47
34.12
23.44
23.29
23.13
23.13
23.15
1.06
1.05
1.04
1.05
1.07
1.45
1.43
1.39
1.35
1.33
14.75
14.73
14.68
14.60
14.55
24.68
24.62
24.52
24.45
24.44
2.99
2.99
3.00
2.97
3.01
1880
2000
2060
2360
2500
34.21
34.38
34.39
33.48
32.29
23.06
22.57
22.14
20.15
23.09
1.10
1.13
1.13
1.15
1.40
1.34
1.41
1.46
1.88
2.07
14.43
14.27
14.19
13.85
13.83
24.46
24.51
24.53
24.54
24.44
3.01
3.05
3.07
3.18
3.25
Outline Dimensions ( inch
mm )
A
B
C
D
E
F
G
H
J
K
L
1.20 .75 .46 1.18 .04 .17 .45 .59 .33 .21 .22
30.48 19.05 11.68 29.97 1.02 4.32 11.43 14.99 8.38 5.33 5.59
M
N
P
Q
R
S
.18 1.00 .50 .35 .18 .09
4.57 25.40 12.70 8.89 4.57 2.29
wt.
grams
35.0
'.)''#$/&-')#
.
')+"$()')%&*(**!'(("& '&$"&*"&""),"+*-*"+
REV. B
M111067
EDR-6380
ZX60-2534M
RAV/URJ
070422
page 1 of 3
'.)''#$/&-')#
.
')+"$()')%&*(**!'(("& '&$"&*"&""),"+*-*"+
page 2 of 3
Coaxial
ZX60-2534M+
ZX60-2534M
o
Typical Performance Curves at 25 C
V+ = 2.8V
V+ = 5.0V
1000
1500
2000
FREQUENCY (MHz)
-55°C to 100°C
Storage Temperature
-55°C to 100°C
45
RF Power Input*
* Passband rating, derate linearly to 3W at 100C ambient.
V+ = 2.8V
V+ = 5.0V
40
35
7W max. at 25°C
0ERMANENTDAMAGEMAYOCCURIFANYOFTHESELIMITSAREEXCEEDED
sRUGGEDUNIBODYCONSTRUCTIONSMALLSIZE
sSECTIONS
sTEMPERATURESTABLE
sEXCELLENTPOWERHANDLING7
sLOWCOST
1000
1500
2000
FREQUENCY (MHz)
STOP BAND
(MHz)
Min.
2500
2.0
1.5
1000
1500
2000
FREQUENCY (MHz)
(loss > 20 dB)
Typ.
Max.
Typ.
Stopband
1.5:1
640
880
1060-2500
950-3200
20:1
970-2400
typical frequency response
.312 Across Flats
in some models
17
Outline Dimensions ( inch
mm )
15
B
.410
10.41
13
V+ = 2.8V
V+ = 5.0V
11
1000
1500
2000
FREQUENCY (MHz)
D
1.43
36.32
3dB
F co
F R E QUE NC Y
E
wt
.312 grams
7.92
10.0
Typical Performance Data
Frequency
(MHz)
Insertion Loss
(dB)
1
100
500
640
750
810
880
950
970
1060
2400
2500
3200
4200
5000
2500
VSWR
(:1)
82.28
65.99
43.09
23.32
10.12
4.81
1.98
1.20
1.09
0.85
0.56
0.64
1.59
3.53
5.41
868.59
868.59
52.65
24.48
8.60
3.78
1.81
1.36
1.32
1.28
1.55
1.68
2.92
5.83
9.48
25
23
21
V+ = 2.8V
V+ = 5.0V
2.6
19
2.4
500
17
500
2500
1000
1500
2000
FREQUENCY (MHz)
2500
100
90
80
70
60
50
40
30
20
10
0
1000
1
0
1000
2000
3000
4000
5000
0
Mini-Circuits
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
2000
3000
4000
page 3 of 3
5000
For detailed performance specs
& shopping online see web site
®
Provides ACTUAL Data Instantly at minicircuits.com
IF/RF MICROWAVE COMPONENTS
'.)''#$/&-')#
.
')+"$()')%&*(**!'(("& '&$"&*"&""),"+*-*"+
1000
FREQUENCY (MHz)
®
100
10
FREQUENCY (MHz)
VHF-880
VSWR
10000
VSWR
IP3 (dBm)
2.8
VHF-880
INSERTION LOSS
27
INSERTION LOSS (dB)
NOISE FIGURE (dB)
F 1.3dB
29
3.0
1500
2000
FREQUENCY (MHz)
R F OUT
40dB
31
3.2
1000
7
electrical schematic
20dB
ZX60-2534M
IP3
V+ = 2.8V
V+ = 5.0V
3.4
NO. OF
SECTIONS
Frequency
(MHz)
500
33
3.6
VSWR (:1)
Typ.
(loss < 2 dB)
R F IN
ZX60-2534M
NOISE FIGURE
3.8
PASSBAND
(MHz)
(loss > 40 dB)
19
9
500
2500
fco, MHz
Nom.
(loss 3 dB) (loss < 1.3 dB)
AT T E NUAT ION
OUTPUT POWER (dBm)
2.5
The +Suffix identifies RoHS Compliance. See our web site
for RoHS Compliance methodologies and qualifications.
Electrical Specifications (TAMB=25C)
Outline Drawing
21
3.0
Price
Qty.
$24.95 ea. (1-9)
20
ZX60-2534M
OUTPUT POWER AT 1dB COMPRESSION
IN ,V+ =2.8V
IN ,V+ =5V
OUT ,V+ =2.8V
OUT ,V+ =5V
3.5
Model
VHF-880(+)
+ RoHS compliant in accordance
with EU Directive (2002/95/EC)
sSUBHARMONICREJECTIONANDDCBLOCKING
sTRANSMITTERSRECEIVERS
sLABUSE
25
10
500
2500
CASE STYLE: FF704
Connectors
SMA
Applications
30
15
4.0
VSWR
Features
Operating Temperature
50
ZX60-2534M
VSWR
1.0
500
50950 to 3200 MHz
Maximum Ratings
ZX60-2534M
DIRECTIVITY
DIRECTIVITY (dB)
GAIN (dB)
ZX60-2534M
GAIN
42
40
38
36
34
32
30
28
26
24
22
500
VHF-880+
VHF-880
High Pass Filter
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
REV. E
M129173
VHF-880
EDR-6437/1
RVN/AD/AM
101029
Coaxial
Coaxial
VLF-400+
VLF-400
Low Pass Filter
50DC to 400 MHz
50DC to 1400 MHz
Features
Maximum Ratings
Operating Temperature
-55°C to 100°C
Storage Temperature
-55°C to 100°C
RF Power Input*
8.5W max. at 25°C
DC Current Input to Output
0.5A max. at 25°C
Features
Maximum Ratings
sRUGGEDUNIBODYCONSTRUCTIONSMALLSIZE
sSECTIONS
sEXCELLENTPOWERHANDLING7
sTEMPERATURESTABLE
sLOWCOST
sPROTECTEDBY530ATENT
* Passband rating, derate linearly to 3.5W at 100°C ambient.
VLF-1400+
VLF-1400
Low Pass Filter
CASE STYLE: FF704
#ONNECTORS
SMA
-ODEL
VLF-400(+)
0RICE 1TY
$21.95 ea. (1-9)
+ RoHS compliant in accordance
with EU Directive (2002/95/EC)
0ERMANENTDAMAGEMAYOCCURIFANYOFTHESELIMITSAREEXCEEDED
Applications
sHARMONICREJECTION
sTRANSMITTERSRECEIVERS
sLABUSE
Operating Temperature
-55°C to 100°C
Storage Temperature
-55°C to 100°C
RF Power Input*
10W max. at 25°C
DC Current Input to Output
0.5A max. at 25°C
sRUGGEDUNIBODYCONSTRUCTIONSMALLSIZE
sSECTIONS
sEXCELLENTPOWERHANDLING7
sTEMPERATURESTABLE
sLOWCOST
sPROTECTEDBY530ATENT
* Passband rating, derate linearly to 3.5W at 100°C ambient.
Applications
sHARMONICREJECTION
sTRANSMITTERSRECEIVERS
sLABUSE
The +Suffix identifies RoHS Compliance. See our web site
for RoHS Compliance methodologies and qualifications.
PASSBAND
(MHz)
fco, MHz
Nom.
STOP BAND (MHz)
(loss, dB)
LOSSD"
LOSSD"
f 20
The +Suffix identifies RoHS Compliance. See our web site
for RoHS Compliance methodologies and qualifications.
Max.
4YP
Min.
DC-400
560
660
Outline Drawing
NO. OF
SECTIONS
3TOPBAND
0ASSBAND
4YP
4YP
4YP
4YP
680-3000
5500
20
1.2
typical frequency response
.312 Across Flats
in some models
Electrical Specifications (TAMB=25C)
VSWR
(:1)
fr 20
40
PASSBAND
(MHz)
fco, MHz
Nom.
LOSSD"
LOSSD"
7
electrical schematic
R F IN
4YP
Min.
4YP
4YP
4YP
4YP
2015
2100-6600
6800
20
1.2
AT T E NUAT ION
AT T E NUAT ION
7
electrical schematic
R F IN
3dB
R F OUT
20dB
3dB
1dB
F R 20dB
B
.410
10.41
Typical Performance Data at 25C
VSWR
(:1)
1
100
400
500
560
0.06
0.27
0.80
1.44
2.77
1.02
1.10
1.12
1.39
2.01
600
620
650
660
680
5.87
9.82
20.09
24.64
35.49
3.54
5.72
10.62
12.01
14.50
1000
2000
3000
4500
5500
42.32
59.01
39.73
23.58
23.21
33.42
57.91
64.35
45.72
43.44
VLF-400
INSERTION LOSS
80
D
1.43
36.32
E
wt
.312 grams
7.92
10.0
Typical Performance Data at 25C
Frequency
(MHz)
VLF-400
VSWR
1000
INSERTION LOSS (dB)
60
100
VSWR
40
30
10
20
10
0
2200
3300
4400
5500
50
500
1000
1400
1600
0.07
0.17
0.35
0.62
1.28
1.02
1.08
1.14
1.10
1.67
1700
1790
1880
2015
2100
2.55
5.56
11.44
25.70
37.96
2.67
5.25
10.96
17.75
18.90
3500
5000
6600
6800
7000
53.01
39.77
41.25
28.87
18.61
35.46
52.65
43.44
38.61
21.73
VLF-1400
INSERTION LOSS
0
1100
FREQUENCY (MHz)
60
100
50
40
30
10
20
10
2200
3300
4400
1
0
5500
1000
2000
Mini-Circuits
®
4000
5000
6000
7000
0
1000
Mini-Circuits
Provides ACTUAL Data Instantly at minicircuits.com
3000
4000
5000
6000
7000
For detailed performance specs
& shopping online see web site
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
REV. G
M129173
VLF-400
ED-6588/3
RVN/AD/CP/AM
101102
IF/RF MICROWAVE COMPONENTS
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
2000
FREQUENCY (MHz)
®
For detailed performance specs
& shopping online see web site
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
3000
FREQUENCY (MHz)
FREQUENCY (MHz)
®
VLF-1400
VSWR
1000
70
0
1
1100
VSWR
(:1)
80
70
50
Insertion Loss
(dB)
VSWR
Insertion Loss
(dB)
F R 20dB
F co F 20
F R E QUE NC Y
Outline Dimensions ( inch
mm )
Frequency
(MHz)
INSERTION LOSS (dB)
0ASSBAND
40dB
F co F 20
F R E QUE NC Y
0
NO. OF
SECTIONS
3TOPBAND
1700
1dB
E
wt
.312 grams
7.92
10.0
VSWR
(:1)
fr 20
Max.
20dB
Outline Dimensions ( inch
mm )
D
1.43
36.32
30
typical frequency response
.312 Across Flats
in some models
R F OUT
STOP BAND (MHz)
(loss, dB)
f 20
DC-1400
40dB
B
.410
10.41
-ODEL
0RICE 1TY
VLF-1400(+) $21.95 ea. (1-9)
+ RoHS compliant in accordance
with EU Directive (2002/95/EC)
0ERMANENTDAMAGEMAYOCCURIFANYOFTHESELIMITSAREEXCEEDED
Electrical Specifications (TAMB=25C)
Outline Drawing
CASE STYLE: FF704
#ONNECTORS
SMA
®
Provides ACTUAL Data Instantly at minicircuits.com
REV. B
M129173
VLF-1400
ED-11690
AD/TD/CP/AM
101102
IF/RF MICROWAVE COMPONENTS
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
Low Noise
Amplifier
Features
•
•
•
•
•
•
Low noise figure 0.9 typ.
+18 dBm typ. output power at 1 dB compression
High active directivity, 17 dB typ.
Good IP3, 35 dBm typ.
Reverse voltage connection protected
Protected by US patent 6,790,049
CASE STYLE: GA955
Connectors
SMA
Applications
•
•
•
•
•
•
•
Low noise amplifier RF front end
Low noise pre-amp
Buffer amplifier
WiMAX
SAB / SAP
Lab
Test equipment
Model
ZX60-3800LN-S+
Price
Qty.
$119.95 ea. (1-9)
+ RoHS compliant in accordance
with EU Directive (2002/95/EC)
The +Suffix has been added in order to identify RoHS
Compliance. See our web site for RoHS Compliance
methodologies and qualifications.
Electrical Specifications at TAMB = 25oC
FREQ.
(MHz)
GAIN
(dB)
DYNAMIC
RANGE
MAXIMUM
POWER
(dBm)
VSWR
(:1)
Typ.
DC
DC
ACTIVE
DIRECTIVITY VOLTAGE OPERATING
@ Pin V+ CURRENT @
(dB)
Pin V+
(V)
Isolation-Gain
(mA)
Output
(1 dB Comp.)
NF
(dB)
IP3
(dBm)
Typ.
Typ. Max
Typ.
In
Out
Typ.
Typ.
Max.
±0.4
18.0
0.9
2.0
36
1.5
1.3
17
5
85
110
±1.0
18.0
1.0
2.0
35
1.2
1.4
17
5
85
110
fL- fU
Typ.
Min.
Flatness
Typ.
Max.
3300-3600
24
20
±0.1
3600-3800
23
19
±0.6
GAIN (dB)
Maximum Ratings
-40oC to 80oC case
-55oC to 100oC
6.5V
Input Power(no Damage)
GAIN
(dB)
DIRECTIVITY
(dB)
VSWR
IN
(:1)
VSWR
OUT
(:1)
POWER OUT @ 1dB
COMPRESSION
(dBm)
IP3
(dBm)
NF
(dB)
3300
3320
3340
3360
3380
23.71
23.72
23.71
23.64
23.63
16.42
17.60
17.44
17.17
16.51
1.48
1.46
1.44
1.42
1.40
1.15
1.18
1.20
1.22
1.24
17.92
17.95
17.94
17.95
17.92
38.44
37.89
37.41
37.38
37.21
0.91
0.89
0.90
0.91
0.91
3400
3420
3440
3460
3480
23.60
23.63
23.67
23.70
23.67
16.36
16.52
16.80
16.14
15.40
1.38
1.36
1.34
1.32
1.31
1.25
1.27
1.28
1.29
1.30
17.91
17.99
18.01
17.98
18.08
37.08
36.90
36.72
36.66
36.60
0.90
0.90
0.90
0.91
0.92
3500
3520
3540
3560
3580
23.60
23.64
23.70
23.76
23.67
15.69
15.28
15.95
14.39
14.26
1.29
1.27
1.25
1.23
1.21
1.31
1.31
1.31
1.32
1.32
18.09
18.26
18.16
18.15
18.32
36.42
36.40
36.36
36.41
36.25
0.89
0.92
0.91
0.92
0.93
3600
3650
3700
3750
3800
23.51
23.57
23.18
23.00
22.52
14.96
14.83
14.84
15.11
15.71
1.20
1.20
1.22
1.25
1.29
1.32
1.31
1.29
1.27
1.24
18.30
18.35
18.35
18.24
18.30
36.36
36.53
36.71
36.66
36.85
0.93
0.98
0.98
0.99
1.01
ZX60-3800LN+
GAIN
ZX60-3800LN+
Operating Temperature
Storage Temperature
DC Voltage
FREQUENCY
(MHz)
ZX60-3800LN+
DIRECTIVITY
24
1.7
24.5
22
1.6
20
1.5
24.0
23.5
23.0
22.5
1dBm
18
16
14
Permanent damage may occur if any of these limits are exceeded.
22.0
12
Outline Drawing
21.5
3300
10
3300
3400
3500
3600
3700
3800
1.1
3400
E
1.02
F
G
H
4.32 11.43 14.99
18.5
18.0
17.5
J
8.38
K
5.33
L
5.59
M
N
P
4.57 25.40 12.70
Q
8.89
R
4.57
S
2.69
1.0
3300
3800
3400
40
1.00
39
0.95
0.90
0.85
0.75
3300
3700
3800
3600
3700
3800
3700
3800
ZX60-3800LN+
IP3
1.05
16.5
3300
3500
FREQUENCY (MHz)
41
0.80
FREQUENCY (MHz)
3700
1.10
17.0
3600
3600
IP3 (dBm)
NOISE FIGURE (dB)
OUTPUT POWER (dBm)
A
B
C
D
30.48 19.05 11.68 29.97
19.0
3500
3500
ZX60-3800LN+
NOISE FIGURE
ZX60-3800LN+
OUTPUT POWER AT 1dB COMPRESSION
19.5
OUT
1.3
FREQUENCY (MHz)
20.0
3400
IN
1.4
1.2
FREQUENCY (MHz)
Outline Dimensions ( inch
)
ZX60-3800LN+
VSWR
25.0
DIRECTIVITY (dB)
MODEL
NO.
ZX60-3800LN+
3300 to 3800 MHz
VSWR
50Ω
Typical Performance Data & Curves at 25oC
ZX60-3800LN+
38
37
36
35
3400
3500
3600
3700
34
3300
3800
FREQUENCY (MHz)
3400
3500
3600
FREQUENCY (MHz)
wt.
35.0
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"#$(%#&"$#"#$"%" #&#$
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$"$"## REV. OR
M111161
RDF-1363
ZX60-3800LN+
BLUEC/RAV
110518
Page 1 of 2
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®
Mini-Circuits
®
Mini-Circuits
For detailed performance specs
& shopping online see web site
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
®
Provides ACTUAL Data Instantly at minicircuits.com
IF/RF MICROWAVE COMPONENTS
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
For detailed performance specs
& shopping online see web site
®
34
!4
Provides ACTUAL Data Instantly at minicircuits.com
IF/RF MICROWAVE COMPONENTS
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
Super Ultra
Wideband Amplifier
50Ω
ZVA-183+
Features
sSUPERULTRAWIDEBAND-(ZTO'(Z
s HIGHOUTPUT)0D"MTYP
sRUGGEDCOMPACTCASEINCLUDINGMOUNTINGBRACKET
s UNCONDITIONALLYSTABLE
sGOODMATCHINGATINPUTANDOUTPUT
s WITHSTANDSOPENSHORTLOADATD"COMPRESSIONPOINTOUTPUTPOWER
s VERYGOODISOLATIOND"TYP
ZVA-183X+
Electrical Specifications TAMB=25°C
GAIN
(dB)
DYNAMIC
RANGE
MAXIMUM
POWER
(dBm)
Output
(1 dB Compr.)
VSWR
(:1)
Typ.
DC
POWER
fL
fU
Typ.
Min.
Flatness
Typ.
Typ.
Min.
CW
Input
(no damage)
Typ.
Max.
Output
IP3
(dBm)
Typ.
In
Out
Volt
(V)
Nom.
Current
(mA)
Max.
ZVA-183+
0.7
18
26
24
±1.0
24
21
+4
3.0
5.5
+33
1.35
1.25
12
400
ZVA-183X+*
0.7
18
26
24
±1.0
24
21
+4
3.0
5.5
+33
1.35
1.25
12
400
*Heat sink not included
NF
(dB)
To order without heat sink add suffix X to model number. Alternative heat sinking and heat removal must be provided by the user to limit maximum base-plate
temperature to 85°C, in order to ensure proper performance. For reference, this
requires thermal resistance of user’s external heat sink to be 4°C/W Max.
Maximum Ratings
-55°C to 85°C base plate temp.
Storage Temperature
12V
IN
OUT
12V
12V
26.25
26.32
26.40
26.45
26.49
49.93
49.16
50.96
49.60
54.43
1.50
1.47
1.43
1.40
1.38
1.74
1.64
1.58
1.53
1.50
4.84
4.74
4.68
4.66
4.70
23.77
23.89
23.80
23.67
23.73
700.00
800.00
900.00
1000.00
2000.00
36.01
36.82
37.38
37.33
36.86
2000.00
3000.00
4000.00
5000.00
6000.00
26.83
26.88
26.87
26.75
26.68
49.44
54.76
50.02
50.10
47.03
1.27
1.24
1.23
1.23
1.26
1.28
1.07
1.21
1.41
1.46
3.91
3.46
3.19
2.89
2.74
23.95
24.39
24.80
25.08
25.04
3000.00
4000.00
5000.00
6000.00
7000.00
36.24
35.58
35.10
34.38
33.78
7000.00
8000.00
9000.00
10000.00
11000.00
26.64
26.53
26.42
26.23
26.12
49.03
52.49
59.55
53.89
54.33
1.30
1.34
1.36
1.36
1.38
1.35
1.17
1.19
1.39
1.52
2.56
2.49
2.48
2.63
2.87
25.43
25.34
25.23
25.09
24.73
8000.00
9000.00
10000.00
11000.00
12000.00
33.26
32.62
32.09
31.27
30.49
12000.00
13000.00
14000.00
15000.00
16000.00
26.28
26.27
26.03
26.04
26.21
38.47
56.13
43.11
44.40
34.69
1.37
1.37
1.40
1.34
1.12
1.37
1.02
1.38
1.55
1.36
3.25
3.33
3.14
3.31
3.26
24.14
23.68
23.31
23.24
23.06
13000.00
14000.00
15000.00
16000.00
17000.00
30.47
30.19
29.63
29.01
28.88
17000.00
18000.00
25.90
25.12
33.52
37.12
1.08
1.16
1.01
1.37
3.41
3.72
22.76
21.65
18000.00
28.98
The +Suffix has been added in order to identify RoHS
Compliance. See our web site for RoHS Compliance
methodologies and qualifications.
FREQUENCY
(GHz)
Operating Temperature
12V
700.00
800.00
900.00
1000.00
1100.00
+ RoHS compliant in accordance
with EU Directive (2002/95/EC)
sRADAR
sVERYWIDEBANDTESTINSTRUMENTATION
sLABUSE
sWIDEBANDISOLATIORDIRECTIVITYD"TYP
VSWR
(:1)
NOISE
FIGURE
(dB)
POUT
at 1 dB
COMPR.
(dBm)
IP3
(dBm)
GAIN
(dB)
1TY
DIRECTIVITY
(dB)
FREQUENCY
(MHz)
FREQUENCY
(MHz)
ZVA-183+
CASE STYLE: AV1280
#ONNECTORS -ODEL
0RICE
SMA
:6!3
SMA
:6!83
Applications
MODEL
NO.
ZVA-183+
Typical Performance Data/Curves
700 MHz to 18 GHz
12V
-65°C to 150°C
DC Voltage
+15V Max.
0ERMANENTDAMAGEMAYOCCURIFANYOFTHESELIMITSAREEXCEEDED
ZVA-183+
DIRECTIVITY
ZVA-183+
GAIN
25
20
2.5
IN
70
60
OUT
2.0
VSWR
DIRECTIVITY (dB)
30
GAIN (dB)
ZVA-183+
VSWR
80
35
Outline Drawing
50
1.5
40
30
15
0
3000
6000
9000
12000
15000
1.0
20
18000
0
FREQUENCY (MHz)
3000
6000
9000
12000
FREQUENCY (MHz)
15000
0
18000
3000
6000
9000
12000
FREQUENCY (MHz)
15000
18000
15000
18000
M OUNT I NG I NF OR M A T I ON F OR M ODE L S W I T H OUT H E A T SI NK
Outline Dimensions ( inch
mm )
A
B
C
D
E
F
1.01
1.63
1.69
.40
1.20
.64
25.65 41.40 42.93 10.16 30.48 16.26
G
H
.24
.60
6.10 15.24
J
.19
4.83
K
.32
8.13
L
M
N
wt
.22
.12
.03 grams*
5.59
3.05
0.76
58
*17 grams without heatsink
ZVA-183+
NOISE FIGURE
45
6.0
40
25
20
15
®
Provides ACTUAL Data Instantly at minicircuits.com
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
4.0
3000
6000
9000
12000
FREQUENCY (MHz)
15000
18000
30
20
0
3000
6000
9000
12000
FREQUENCY (MHz)
15000
0
18000
®
REV. C
M124323
ZVA-183+
ED-13014
BC/CP/AM
091014
Page 1 of 2
35
25
3.0
Mini-Circuits
For detailed performance specs
& shopping online see web site
®
IF/RF MICROWAVE COMPONENTS
5.0
2.0
0
Mini-Circuits
IP3 (dBm)
50
7.0
10
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
ZVA-183+
IP3
8.0
30
NOISE FIGURE (dB)
OUTPUT POWER (dBm)
ZVA-183+
OUTPUT POWER 1-dB COMPRESSION
35
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
3000
6000
9000
12000
FREQUENCY (MHz)
For detailed performance specs
& shopping online see web site
®
Provides ACTUAL Data Instantly at minicircuits.com
IF/RF MICROWAVE COMPONENTS
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
Page 2 of 2
Model 5800 Series
Model 5800 Series
5828 and 5840A
Ultra-Broadband Amplifiers
5828 and 5840A
Ultra-Broadband Amplifiers
Parameter
Gain, S21 (100 MHz)
min limit
Polarity
Bandwidth (-3 dB ) [3]
min limit
• 22 ps Risetime
• 15 GHz Bandwidth
Gain Flatness [3]
Low Frequency (-3 dB)
These two Ultra-Broadband Amplifiers are an excellent choice for either pulse or RF applications.
They offer a very attractive price/performance ratio. They are AC coupled and are extremely
broadband, covering 5 ½ decades from 65 kHz to 15 GHz. They have clean transient responses
and smooth gain vs. frequency responses. Gains of 10 dB or 22 dB and risetimes as fast as 22 ps
are available. These are stable 50 O amplifiers, and several can be connected in cascade for higher
gains. The Models 5828 and 5840A are ideal for 10 Gb/s systems.
Time Domain Pulse Responses at 50 ps/div; Input is 15 ps Risetime
Measured with a PSPL Model 4015C, 15 ps Pulse Generator and an Agilent, 50 GHz digital sampling oscilloscope
IN
IN
(-) OUT
OUT
50 ps/div
100 ps/div
Model 5840A
22 dB, 41 ps rise
80 kHz --- 9.3 GHz
+12 dBm 5.8 dB NF
Model 5828
10 dB, 22 ps rise
65 kHz --- 15 GHz
+12 dBm 6.2 dB NF
Risetime (10%-90%) [4] max. limit
Overshoot [4]
max limit
Max Power Out
(-1 dB gain comp)
Noise Figure (100 MHz)
max limit
typical NF vs. frequency
Effective Input RMS Noise Voltage
TDR Refl. Input
output
Max. RF In (cw)
or peak pulse
Return Loss S11 input
(100 MHz) S22 output
Isolation S12 (100 MHz)
DC Current
5828
5840A
10 dB
9 dB min.
22 dB
21 dB min.
inverting
15 GHz
12 GHz min.
± 0.5 dB
f<4 GHz
65 kHz
22 ps
30 ps max.
5%
8% max.
Non-inverting
8.5 GHz
8 GHz min.
± 0.5 dB
f<2 GHz
80 kHz
41 ps
50 ps max.
4%
8% max.
+12 dBm (100 MHz)
+14 dBm (5 GHz)
+11 dBm (10 GHz)
6.2 dB
8 dB max.
6.7 dB (5 GHz)
7.5 dB (10 GHz)
+12 dBm (100 MHz)
+14 dBm (5 GHz)
+11 dBm (10 GHz)
5.8 dB
8 dB max.
7 dB (5 GHz)
8 dB (10 GHz)
112 μV rms
85 μV rms
±1%
-35%
+10 dBm
1V
>40 dB
9 dB
19 dB
±1%
-9%
0 dBm
315 mV
>40 dB
21 dB
35 dB
53 mA
106 m A
DC Voltage
Temperature
12 V DC, ± 0.5 V
Temp Coeff - Gain
Temp Coeff - BW
-0.002 dB/C
-0.007 dB/C
-0.16%/C
-0.1%/C
Connectors
RF in and out = SMA jacks (f), DC in = solder pin
Warranty
Static-sensitive devices. Limited 30-day warranty
-25 C to +75 C case temperature operating, -25 C to +90 C storage
Ordering Information
Model Number
Description
5828-107
SMA
jack (f) – jack (f), solder pin on DC
5828-108
SMA
jack (f) – jack (f), solder pin on DC, mounting plate option
5840A-107
SMA
jack (f) – jack (f), solder pin on DC
PICOSECOND PULSE LABS P.O. BOX 44 B OULDER , CO 80306, USA TEL: 1.303.443.1249 FAX: 1.303.447.2236
Notes
[1] Parameters listed are typical values. Guaranteed at +12 V and 23 C only when max/min limits are given.
[2] Gain, return loss, isolation, noise figure and max. power output all measured at 100 MHz.
[3] Frequency response measured using a Wiltron 5447A, 10 MHz - 20 GHz network analyzer.
[4] Time domain step responses measured with an Agilent 20 GHz oscilloscope and 25 ps risetime test pulse.
[5] PSPL does 100% QA testing on amplifiers. All amps are stored at -25 C and +90 C and then receive a minimum of 24
hours burn-in. QA tests include gain and noise figure at 100 MHz, S21 frequency response including -3 dB bandwidth,
time domain pulse response risetime, overshoot, pulse fidelity and low frequency square wave response. All parameters
measured with +12 V DC power at +23 C ambient temperature.
[6] Static sensitive! Avoid static discharges. Do not exceed max. input limits.
PICOSECOND PULSE LABS P.O. BOX 44 B OULDER , CO 80306, USA TEL: 1.303.443.1249 FAX: 1.303.447.2236
WWW.PICOSECOND.COM
WWW.PICOSECOND.COM
SPEC-4040052, Revision 4, October 2002
Page 1 of 4
Page 2 of 4
SPEC-4040052, Revision 4, October 2002
Model 5800 Series
Model 5800 Series
5828 and 5840A
Ultra-Broadband Amplifiers
5828 and 5840A
Ultra-Broadband Amplifiers
Mounting Instructions for Model 5828
S21 Gain
1 dB/div
S21 Group Delay
20 ps/div
S11 Return Loss
5 dB/div
This amplifier is not normally
supplied with a mounting
plate. If you desire to mount
the amplifier permanently to
some other object, it is
necessary for you to
purchase the amplifier
including the mounting plate,
shown here as the dashed
lines. This mounting plate
must be ordered at the same
time the amplifier is ordered.
Order it as 5828-108.
S22 Return Loss
5 dB/div
Model 5828,
linear sweep
to 15 GHz,
1.5 GHz/div
Model 5840A,
linear sweep
to 10 GHz,
1.0 GHz/div
Heatsink and mounting Instructions for Model 5840A
This amplifier is supplied
attached to a heatsink. With
the heatsink attached, the
amplifier can be used in an
ambient temperature up to
approximately 50 C in still air.
This amplifier can be
mounted by removing the
heatsink. The heatsink
attachment holes can then be
used as mounting holes for
the amplifier. If the amplifier’s
heatsink is removed, it must
be mounted to another
surface that provides a low
enough thermal impedance
that the amplifier case will
never exceed +75 C while in
operation.
Measured by a Wiltron 37369A vector network analyzer
PICOSECOND PULSE LABS P.O. BOX 44 B OULDER , CO 80306, USA TEL: 1.303.443.1249 FAX: 1.303.447.2236
PICOSECOND PULSE LABS P.O. BOX 44 B OULDER , CO 80306, USA TEL: 1.303.443.1249 FAX: 1.303.447.2236
WWW.PICOSECOND.COM
Page 3 of 4
WWW.PICOSECOND.COM
SPEC-4040052, Revision 4, October 2002
Page 4 of 4
SPEC-4040052, Revision 4, October 2002
PRODUCT SPECIFICATION
• 12.5 Gpbs Lithium Niobate modulator
driver (8 Vamp output)
• Linear amplifier with 26 dB small signal
PRODUCT SPECIFICATION MODEL 5865 12.5GB/S DRIVER AMPLIFIER
5865 Electrical Specifications
MODEL 5865
12.5 GB/S
DRIVER AMPLIFIER
PARAMETER
SYMBOL
UNITS
MIN
TYPICAL
MAX
Polarity
gain and 12 GHz of bandwidth
• High gain with low power dissipation
(2.3 watts at 8 Vamp)
• Temperature compensated design for
output stability
• Includes bias network, crossing point
control & adjustable output voltage
Output Eye Voltage with Vgc = 0 V
VOUT
Vamp
Output Eye Voltage with Vgc = -15 V
VOUT
Vamp
1.0
Upper Frequency 3 dB Point
f3dB,upper
GHz
12
Lower Frequency 3 dB Point
The 5865 includes internal temperature compensation for excellent output stability over temperature,
and exhibits both high output and low power dissipation. It also incorporates internal sequencing
circuitry, making it insensitive to power supply application sequence.
8.0
Vin = 0.5 Vamp, 12.5 Gb/s PRBS
2.0
Vin = 0.5 Vamp
Small signal, relative to gain at 2 GHz
f3dB,lower
kHz
30
S21
dB
26.5
Output Power at 1dB Gain
Compression
P1dB
dBm
23.5
tr,f
ps
14 / 23
20 / 28
ps
pspp
0.7
4
1.5
8
Vin = 0.5 Vamp, 12.5 Gb/s PRBS,
measured at crossing point
%
±3
±5
Vgc = 0 V, Vin = 0.5 Vamp,
TCASE = –5 to 75C, 12.5 Gb/s PRBS
Additive Jitter [1]
RMS
Peak-to-Peak
Output Eye Voltage Variation Over
Operating Temperature Range
ΔVOUT
±15
Small signal, relative to gain at 2 GHz
Measured at 2 GHz
Measured at 2 GHz
±20
%
Crossing Point Variation Over
Operating Temperature Range
%
±1.0
Overshoot / Undershoot
%
5
S11, S22
dB
-14
-11
-12
-9
NF
dB
5.75
6.5
Noise Figure
10% to 90%, Vin = 0.5 Vamp,
12.5 Gb/s PRBS
±5 V input at Vcp, Vin = 0.5 Vamp
Crossing Point Adjust
Input / Output Return Loss
50 MHz < f < 5 GHz
5 GHz ≤ f < 12 GHz
Typical 10.66 Gb/s Eye Measurements
7.5
Small signal gain
Deconvolved Rise / Fall Time [1]
The Picosecond Pulse Labs Model 5865 driver amplifier is intended for use driving Lithium Niobate
modulators or as a linear amplifier.
COMMENTS
Non-inverting
±2.0
0.5 Vamp Input, 12.5 Gb/s PRBS,
TCASE = –5 to 75oC, Vgc constant
12.5 Gb/s PRBS
f = 1 GHz
[1] Deconvolution is done by root sum of squares. Input rise/fall times were 27 ps. Input jitter was 2.3 ps RMS / 9.8 ps pk-pk.
5865 Operating Specifications
PARAMETER
SYMBOL
UNITS
Maximum allowed Input
Input Test Signal [1]
Output Response [2]
[1] Input test signal generated by Agilent Pattern Generator model 70843B.
[2] Output response measured using Agilent oscilloscope model 86100A with model 83484A 50 GHz plug-in module.
MIN
TYPICAL
Vamp
MAX
COMMENTS
1.5
Damage threshold for input
275 mA typical with VOUT = 8 Vamp
DC Voltage Supply (pos)
+VDC
VDC
8
8
8.25
DC Voltage Supply (neg)
-VDC
VDC
-5.25
-5
-4.75
Power Dissipation
Pdiss
W
2.3
2.6
VOUT = 8 Vamp, Vgc may be utilized to
lower the output level and lower the
power dissipated
Output Voltage Bias
Vbias
VDC
-17
+33
2.5 kΩ resistor (DC current ≤ 3.5 mA),
Operating Temperature
TCASE
o
-5
75
Case Temperature
Storage Temperature
TCASE
o
-40
125
Case Temperature
C
C
20 mA typical
Static sensitive device, limited 30 day warranty.
PICOSECOND PULSE LABS, P.O. BOX 44, BOULDER, CO 80306, USA, TEL: 1.303.443.1249, FAX: 1.303.447.2236
SPEC-4040085, REVISION 8, APRIL 2004, APPLIES TO MODEL 5865 REV 2
PAGE 1 OF 7
PAGE 2 OF 7
PICOSECOND PULSE LABS, P.O. BOX 44, BOULDER, CO 80306, USA, TEL: 1.303.443.1249, FAX: 1.303.447.2236
SPEC-4040085, REVISION 8, APRIL 2004, APPLIES TO MODEL 5865 REV 2
PRODUCT SPECIFICATION MODEL 5865 12.5GB/S DRIVER AMPLIFIER
PRODUCT SPECIFICATION MODEL 5865 12.5GB/S DRIVER AMPLIFIER
10
Vin=0.250
Vin=0.375
Vin=0.500
Vin=0.750
Vin=1.000
9
8
7
6
Output Voltage (Vamp)
Output Voltage (Vamp)
10
5
4
3
TCASE=35C
2
1
9
8
7
6
5
4
Vin=0.250
Vin=0.500
3
Vin=1.00
0
-15.0
-12.5
-10.0
-7.5
-5.0
-2.5
2
-10C
0.0
Gain Control Bias, Vgc (V)
10C
30C
Vin=0.375
Vin=0.750
Vgc = 0 V
50C
70C
Case Temperature
Typical Measured 10.66 Gb/s Optical Eye
(PSPL model 5865 driver, modulator controller, and OTI 12.5Gb/s LiNbO3 modulator)
58
Input test signal generated by Advantest Pattern Generator model D3186. Output response
measured using Agilent oscilloscope model 86100A with model 86109A optical plug-in module.
56
75%
70%
Vgc=0V
8
Vgc=0
7
Vgc=-3
6
Crossing Point
Output Voltage (Vamp)
9
Crossing Point
65%
10
54
52
50
Vgc=-6
5
Vgc=-9
4
Vgc=-12
3
Vgc=-15
2
48
Vin=0.250
Vin=0.500
Vin=0.750
Vin=1.00
46
-10C 0C 10C 20C 30C 40C 50C 60C 70C 80C
Case Temperature
1
Vin=0.500V
60%
55%
50%
45%
40%
35%
30%
-5V -4V -3V -2V -1V 0V 1V 2V 3V 4V
Crossing Point Adjust Bias
0
0.2
0.3
0.4
0.5
0.6
0.7
0.8
0.9
1.0
1.1
Detailed test setup information available upon request.
Input Voltage (Vamp)
Typical Output Voltage versus Input Voltage
(Gain Control Bias = Vgc, TCASE = 35C)
PICOSECOND PULSE LABS, P.O. BOX 44, BOULDER, CO 80306, USA, TEL: 1.303.443.1249, FAX: 1.303.447.2236
SPEC-4040085, REVISION 8, APRIL 2004, APPLIES TO MODEL 5865 REV 2
PAGE 3 OF 7
PAGE 4 OF 7
PICOSECOND PULSE LABS, P.O. BOX 44, BOULDER, CO 80306, USA, TEL: 1.303.443.1249, FAX: 1.303.447.2236
SPEC-4040085, REVISION 8, APRIL 2004, APPLIES TO MODEL 5865 REV 2
PRODUCT SPECIFICATION MODEL 5865 12.5GB/S DRIVER AMPLIFIER
PRODUCT SPECIFICATION MODEL 5865 12.5GB/S DRIVER AMPLIFIER
5865 Mechanical Dimensions (in inches unless otherwise stated)
30
28
S21 Magnitude (dB)
26
24
22
20
18
16
14
12
10
0
2
4
6
8
10
12
14
16
18
20
Frequency (GHz)
Typical Small Signal S21
(measured at –20 dBm input power)
0
Ordering Information
Magnitude (dB)
-5
-10
Model Number
Connector Configuration *
5865-107
RF input SMA jack, RF output SMA jack, solder pins
S11
* Other connector configurations may be available upon request.
S22
Contact Information
-15
Picosecond Pulse Labs
P.O. Box 44
Boulder, Colorado 80306, USA
-20
-25
Telephone: 1.303.443.1249
Fax: 1.303.447.2236
mailto:info@picosecond.com
-30
0
2
4
6
8
10
12
14
16
18
20
Sales Support:
Telephone: 1.303.443.1249
Fax: 1.303.447.2236
Frequency (GHz)
Typical Small Signal S11 and S22
(measured at –20 dBm input power)
Visit Us At:
www.picosecond.com
PICOSECOND PULSE LABS, P.O. BOX 44, BOULDER, CO 80306, USA, TEL: 1.303.443.1249, FAX: 1.303.447.2236
SPEC-4040085, REVISION 8, APRIL 2004, APPLIES TO MODEL 5865 REV 2
PAGE 5 OF 7
PAGE 6 OF 7
PICOSECOND PULSE LABS, P.O. BOX 44, BOULDER, CO 80306, USA, TEL: 1.303.443.1249, FAX: 1.303.447.2236
SPEC-4040085, REVISION 8, APRIL 2004, APPLIES TO MODEL 5865 REV 2
MODEL 5810B
BROADBAND AMPLIFIER
PRODUCT SPECIFICATION
145 ps Risetime
PRODUCT SPECIFICATION MODEL 5865 12.5GB/S DRIVER AMPLIFIER
Instructions for Use
The Picosecond Pulse Labs 5865 12.5 Gb/s modulator driver may be operated using only three of the available
7 pins. The DC pins required for operation are 1, 3, and 7. The RF connectors and DC pins are diagramed and
defined below.
1
2
3
4
5
6
7
Pin Descriptions
Pin #
Pin Label
The 5810B Broadband Amplifier is an excellent low cost choice for either
pulse or RF applications. It is AC-coupled and is extremely broadband,
covering 5½ decades from 6 kHz to 2 GHz. It has a clean transient response
and smooth gain vs. frequency response. This is a stable, 50 Ohm amplifier,
and several can be connected in cascade for higher gains. This amplifier is packaged in a convenient,
small metal module with SMA connectors and a built-in bias regulator. If you require higher bandwidths
and faster risetimes, please see the data sheet for PSPL s 5800 Series Ultra-Broadband Amplifiers.
Gain
min. limit
13 dB
11 db
Polarity
inverting
Risetime (10-90%)
145 ps
BandWidth (-3 dB)
min. limit
Low Freq. (-3 dB)
Max. Power Out
(-1 dB gain comp)
Noise Figure
Temperature
Max. Input
DC Voltage
2 GHz
1.7 GHz
limits
DC Current
6 kHz
+9 dBm
Temp Coeff - Gain
-0.005 dB/C
(1.8 Vptp)
Temp Coeff - BW
5 dB
-0.08%/C
0 C to +50 C ambient operating. -25 C to +90 C ambient storage
+10 dBm (cw). 1 Volt peak pulse
1.75 x 1.25 x 0.63 including connectors.
Case is 1 x 1 x 0.63 (2.5 x 2.5 x 1.6 cm)
Static-sensitive devices. Limited 30-day warranty
Dimensions
Description
Warranty
IN
SMA, signal input, Vamp ≤ 1.5 V (damage threshold)
1
+V
Positive DC voltage supply, 8 V (see Note 1 and Note 2)
2
GC
Vgc, Variable output control, -15 V ≤ Vgc ≤ 0 V (see Note 3)
3
-V
Negative DC voltage supply, -5.25 V ≤ V ≤ -4.75 V (see Note 2)
4
CP
Crossing point adjust, -5 V Vcp 5 V (see Note 4)
5
VB
DC Voltage bias, -17 ≤ VB ≤ +33 (see Note 5)
6
NC
No connection / Not used
7
GND
Ground connection
OUT
SMA, signal output
Warning: The 5865 requires a ground connection at pin #7 prior to voltage application to prevent damage.
NOTES:
Note 1: At 8V, approximately 2.3W is dissipated.
Note 2: No power sequencing is necessary. Voltages may be applied in any order after ground is applied.
Note 3: Output Control: With Vgc at 0V, or left floating (disconnected), the driver will provide maximum gain and
maximum output voltage. The user may decrease Vgc to decrease the RF signal gain when the driver is
operating in the linear regime, or to reduce the output voltage level when the driver is operated in saturation (this
will also reduce the power dissipated).
Note 4: The crossing point may vary until unit achieves thermal equilibrium.
Note 5: Voltage Bias: The VB pin allows the user to apply a low current (less than 3.5 mA) DC offset to the
Signal Output for biasing electro-optic modulators through a 2 kΩ resistor.
PICOSECOND PULSE LABS, P.O. BOX 44, BOULDER, CO 80306, USA, TEL: 1.303.443.1249, FAX: 1.303.447.2236
SPEC-4040085, REVISION 8, APRIL 2004, APPLIES TO MODEL 5865 REV 2
PAGE 7 OF 7
2 GHz Bandwidth
Isolation
Return Loss
TDR Refl.
20 dB
input
output
input
output
35 dB
27 dB
+1 %
-4 %
12 V
7-15 V
40 mA
Forward Gain
2 dB/div, linear sweep
from 10 MHz to 5 GHz
Reverse Isolation, 5 dB/div
Pulse Response to 35 ps falltime input step. 200 ps/div.
Measured with HP-54121A, 20 GHz digital sampling oscilloscope.
Input Return Loss, 5 dB/div
Ordering Information
Model Number
5810B-107
5810B-114
5810B-126
Connector Configuration
Type
Input
Output
SMA
jack (f)
jack (f)
SMA
jack (f)
plug (m)
SMA
jack (f)
plug (m)
Output Return Loss, 5 dB/div
DC
SP
SP
SP
Option
mounting plate
Notes
[1] Parameters listed in table and shown on plots are typical values. Guaranteed at +12 V and 23 C only when max./min.
limits are given.
[2] All parameters measured with +12 V DC power at +23 C ambient temperature.
[3] Gain, return loss, isolation, noise figure and max. power output all measured at 100 MHz.
[4] 35 ps risetime step responses and TDR measured using an HP-54124A, 20 GHz oscilloscope.
[5] Frequency responses measured using a Wiltron 5447A, 10 MHz - 20 GHz, network analyzer.
[6] Static sensitive! Avoid static discharges. Do not exceed max. input limits.
PICOSECOND PULSE LABS, P.O. BOX 44, BOULDER, CO 80306, USA, TEL: 1.303.443.1249, FAX: 1.303.447.2236
WWW.PICOSECOND.COM
PAGE 1 OF 1
SPEC-4040053, REVISION 4, JULY 2010
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For detailed performance specs
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ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
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IF/RF MICROWAVE COMPONENTS
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
For detailed performance specs
& shopping online see web site
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and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
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Maximum Ratings
Power Splitter/Combiner
ZFRSC-183+
DC to 18000 MHz
4 Way-0°
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250 to 6000 MHz
Features
Operating Temperature
-55°C to 100°C
Storage Temperature
-55°C to 100°C
Power Input (as a splitter)
0.16W max.
Internal Dissipation
0.08W max.
CASE STYLE: JJJ245
#ONNECTORS -ODEL
0RICE
1TY
SMA
ZFRSC-183-S+
$79.95 ea. (1-9)
sVERYWIDEBAND$#TO-(Z
sVERYGOODPHASEUNBALANCEDEGTYP
sEXCELLENTAMPLITUDEUNBALANCED"TYP
sRUGGEDSHIELDEDCASE
0ERMANENTDAMAGEMAYOCCURIFANYOFTHESELIMITSAREEXCEEDED
Applications
Coaxial Connections
sLABORATORY
sTESTSETUPS
SUM PORT
S
PORT 1
1
PORT 2
2
+ RoHS compliant in accordance
with EU Directive (2002/95/EC)
Electrical Specifications TAMB =25°C
ISOLATION
(dB)
PHASE
UNBALANCE
(Degrees)
AMPLITUDE
UNBALANCE
(dB)
L
M
U
L
M
U
Max.
Max.
Max.
Max.
Max.
Max.
4
7
10
0.2
0.5
0.5
INSERTION LOSS (dB)
ABOVE 6.0 dB
L
M
U
L
M
U
fL-fU
Typ.
Typ.
Typ.
Typ. Max.
Typ. Max.
Typ. Max.
DC-18000
6.2
6.5
7.0
0.3 0.7
0.7 1.25
1.0
—
L = DC-6000 MHz
M = 6000-12000 MHz
U= 12000-18000 MHz
4HISISARESISTIVEPOWERDIVIDERTOENABLEFREQUENCYCOVERAGEFROMDCTOTHEHIGHESTRATEDFREQUENCY3INCERESISTIVEPOWERDIVIDERDONOT
PROVIDEAHIGHDEGREEOFISOLATIONBASICALLYISOLATIONEQUALSTHEINSERTIONLOSSBETWEENPORTSANAMPLIlERSUCHAS-INI#IRCUITSg:6!
SERIESISRECOMMENDEDWHENHIGHISOLATIONISREQUIRED-ATCHEDPOWERRATING7INTERNALLOADDISSIPATION7
Typical Performance Data
Total Loss1
(dB)
Frequency
(MHz)
Outline Dimensions ( inch
mm )
D
.38
9.65
E
.29
7.37
F
wt
.35 grams
8.89
22.0
500.00
1000.00
2000.00
3000.00
4500.00
6000.00
7500.00
9000.00
10500.00
12000.00
13500.00
15000.00
16500.00
17000.00
18000.00
S-1
S-2
6.05
6.07
6.09
6.19
6.27
6.30
6.37
6.34
6.51
6.76
6.82
7.37
7.25
6.79
6.07
6.07
6.08
6.13
6.22
6.34
6.36
6.39
6.44
6.62
6.82
6.87
7.32
7.04
6.59
5.91
Amplitude
Unbalance
(dB)
Isolation
(dB)
0.01
0.02
0.04
0.02
0.07
0.07
0.03
0.10
0.11
0.05
0.05
0.05
0.21
0.19
0.15
6.05
6.06
6.08
6.26
6.36
6.22
6.38
6.67
6.82
6.58
6.47
7.57
7.35
6.84
6.32
Phase
Unbalance
(deg.)
VSWR
S
VSWR
1
VSWR
2
1.02
1.02
1.02
1.06
1.06
1.07
1.06
1.15
1.17
1.16
1.06
1.12
1.34
1.29
1.07
1.01
1.02
1.01
1.04
1.04
1.12
1.07
1.03
1.06
1.03
1.15
1.32
1.40
1.34
1.19
1.01
1.02
1.01
1.04
1.01
1.09
1.06
1.05
1.03
1.06
1.16
1.29
1.25
1.18
1.13
0.01
0.08
0.26
0.28
0.05
0.01
0.08
0.22
0.10
0.91
0.18
0.01
0.78
0.59
0.57
4OTAL,OSS)NSERTION,OSSD"SPLITTERLOSS
ZFRSC-183+
TOTAL LOSS
ZFRSC-183+
ISOLATION
9.0
ISOLATION (dB)
TOTAL LOSS (dB)
8.0
7.0
6.0
S-1(dB)
The Big Deal
s 7IDEBANDPERFORMANCE
s ,OWAMPLITUDEANDPHASEUNBALANCE
s 'OODINSERTIONLOSS
The +Suffix has been added in order to identify RoHS
Compliance. See our web site for RoHS Compliance
methodologies and qualifications.
FREQ.
RANGE
(MHz)
Outline Drawing
A
B
C
.75
1.00
.58
19.05 25.40 14.73
50Ω
Product Overview
This four-way, in-phase splitter and combiner covers a wide frequency range between 250-6000MHz, making this splitter now suitable for GPS, GSM, DCS and PCS frequency bands, in addition to WiFi, Bluetooth
and 802.11a uses. This model also features good insertion loss and amplitude and phase unbalance, and
is packaged in a 3.5”x 4.5” enclosure with built-in SMA connectors for ease of use.
Feature
Advantages
Operating over a very wide bandwidth from
250MHz to 6000MHz
The very wide bandwidth performance of the ZN4PD1-63W+ enables this splitter/combiner to be used in a
wide range of applications including broadband systems such as test, measurement and defense/aerospace.
However this model covers a variety of narrow band applications including GSM, GPS, DCS and PCS applications, in addition to WiFi, Bluetooth, 802.11a, U-NII and ISM applications.
Good insertion loss
With typical insertion loss of only 1.0dB above the splitter loss up to 4GHz, this splitter supports medium
power signal distribution applications where loss is critical.
Good amplitude and phase performance
Typical amplitude unbalance of 0.2dB and phase unbalance of 2˚ make this splitter ideal for parallel path/
multichannel systems.
8.0
7.0
6.0
S-2(dB)
5.0
5.0
0
3000
6000
#!3%349,%55
9000
12000
15000
0
18000
3000
6000
9000
12000
15000
18000
FREQUENCY (MHz)
FREQUENCY (MHz)
ZFRSC-183+
VSWR
1.5
#S-VSWR
#1-VSWR
#2-VSWR
1.4
electrical schematic
VSWR
1.3
1.2
1.1
1.0
0
3000
6000
9000
12000
15000
18000
FREQUENCY (MHz)
®
®
Mini-Circuits
Mini-Circuits
For detailed performance specs
& shopping online see web site
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
®
REV. A
M127604
ZFRSC-183+
ED-13066/3
AD/CP
100614
Provides ACTUAL Data Instantly at minicircuits.com
IF/RF MICROWAVE COMPONENTS
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
For detailed performance specs
& shopping online see web site
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
®
Provides ACTUAL Data Instantly at minicircuits.com
IF/RF MICROWAVE COMPONENTS
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
Page 1
Coaxial
Power Splitter/Combiner
4 Way-0°
50Ω
60 GHz Development System
ZN4PD1-63W+
250 to 6000 MHz
Maximum Ratings
V60DSK01
Features
Operating Temperature
-55°C to 100°C
Storage Temperature
-55°C to 100°C
Power Input (as a splitter)
s WIDEFREQUENCYBANDTO-(Z
s LOWINSERTIONLOSSD"TYP
s LOWAMPLITUDEUNBALANCED"TYP
s LOWPHASEUNBALANCEDEGTYP
10W max.
Internal Dissipation
3W max.
Applications
Permanent damage may occur if any of these limits are exceeded.
3
PORT 1
1
PORT 2
2
PORT 3
4
PORT 4
5
Features
The +Suffix has been added in order to identify RoHS Compliance.
See our web site for RoHS Compliance methodologies and qualifications.
Electrical Specifications
Parameter
Frequency (MHz)
Min.
Frequency Range
Typ.
250
250-350
350-6000
250-350
350-5500
5500-6000
250-350
350-6000
250-350
350-6000
250-350
350-6000
250-350
350-6000
Insertion Loss Above 6.0 dB
Isolation
Outline Drawing
Technical Overview
+ RoHS compliant in accordance
with EU Directive (2002/95/EC)
s HIGHBAND0#3
s 5.))
s )3-!
s 7I&I
s "LUETOOTH
Coaxial Connections
SUM PORT
#!3%349,%55
Connectors Model
Price
Qty.
SMA
ZN4PD1-63W-S+
$119.95 (1-9)
Phase Unbalance
Amplitude Unbalance
VSWR Input
VSWR Output
—
—
8
14
12
—
—
—
—
—
—
—
—
Max.
Unit
6000
MHz
0.3
1.2
14
20
20
—
—
—
—
1.2
1.3
1.1
1.3
0.8
3.0
—
—
—
3
6
0.3
0.6
—
—
—
—
dB
dB
Degree
dB
Typical Performance Data
Total Loss1
(dB)
S-3
Freq.
(MHz)
250.00
350.00
400.00
500.00
600.00
700.00
800.00
900.00
1000.00
2000.00
3000.00
4000.00
5000.00
5500.00
6000.00
S-1
S-2
6.32
6.22
6.27
6.29
6.32
6.48
6.53
6.46
6.45
6.77
7.13
7.15
7.71
7.90
8.02
6.31
6.21
6.26
6.28
6.30
6.45
6.51
6.45
6.44
6.78
7.20
7.31
7.79
8.09
8.27
K
.50
12.70
D
.125
3.18
E
3.375
85.73
L
M
.400 4.100
10.16 104.14
F
---
11.87
20.88
26.84
27.50
24.35
21.55
23.25
30.37
25.00
28.30
17.84
18.76
25.57
21.38
17.38
Isolation
(dB)
2-3
3-4
19.38
23.90
27.53
45.87
31.29
26.77
25.64
26.45
29.71
29.48
27.02
33.24
29.50
34.53
27.14
11.99
20.88
26.56
27.33
24.14
21.98
23.96
29.80
25.26
28.24
17.39
18.64
26.88
21.02
17.61
Phase VSWR VSWR VSWR VSWR VSWR
Unbal.
S
1
2
3
4
(deg.)
0.27
0.30
0.30
0.38
0.50
0.60
0.66
0.69
0.70
1.45
1.70
2.48
3.27
3.47
4.04
1.46
1.12
1.24
1.21
1.17
1.42
1.48
1.31
1.22
1.33
1.36
1.25
1.58
1.24
1.26
1.09
1.05
1.06
1.10
1.10
1.10
1.14
1.13
1.05
1.22
1.12
1.22
1.41
1.32
1.21
1.09
1.05
1.07
1.10
1.11
1.11
1.15
1.15
1.06
1.24
1.11
1.27
1.44
1.37
1.22
1.09
1.05
1.08
1.11
1.11
1.12
1.15
1.14
1.06
1.23
1.08
1.26
1.45
1.36
1.20
1.10
1.05
1.07
1.10
1.10
1.10
1.14
1.13
1.06
1.23
1.12
1.24
1.42
1.37
1.24
G
.125
3.18
wt
grams
288
9.0
S-1 (dB)
S-3 (dB)
8.0
7.0
6.0
0
1000
2000
3000
4000
5000
6000
FREQUENCY (MHz)
V60RX101
bIQ
bIQ
V60TBA01 TX Board
V60TBA01 RX Board
Note: For detailed technical
specifications on the 60 GHz μModules,
see V60TX101 and V60RX101 data
sheets
User-Defined
Baseband
60 GHz Test Set Up for
Broadband Communications
bIQ
High-Speed
Baseband
Connector
bIQ
Transmitter
μModule
Receiver
μModule
USB
Controller
USB
Controller
High-Speed
Baseband
Connector
1-2 (dB)
1000
2000
2-3 (dB)
3000
4000
3-4 (dB)
5000
6000
FREQUENCY (MHz)
Electrical Schematic
2.0
#S-VSWR
60
55
50
45
40
35
30
25
20
15
0
ZN4PD1-63W+
VSWR
1.8
User-Defined
Baseband
V60TX101
ZN4PD1-63W+
ISOLATION
ISOLATION (dB)
C
.65
16.51
TOTAL LOSS (dB)
J
.33
8.38
1-2
0.02
0.02
0.02
0.03
0.04
0.04
0.02
0.02
0.02
0.02
0.10
0.17
0.17
0.20
0.25
ZN4PD1-63W+
TOTAL LOSS
VSWR (:1)
H
---
Amp.
Unbal.
(dB)
6.33
6.22
6.28
6.31
6.34
6.49
6.54
6.47
6.46
6.79
7.15
7.22
7.82
8.07
8.27
4OTAL,OSS)NSERTION,OSSD"SPLITTERLOSS
Outline Dimensions ( inch
mm )
A
B
3.50
4.50
88.90 114.30
6.32
6.22
6.27
6.29
6.31
6.46
6.52
6.46
6.45
6.77
7.09
7.21
7.65
7.94
8.15
S-4
Transmitter board hosts Vubiq V60TX101 μModule
transmitter with integrated antenna
Receiver board hosts Vubiq V60RX101 μModule
receiver with integrated antenna
Configuration and control via USB interface
57 to 64 GHz unlicensed band
On chip synthesizer covers 57.0 to 64.0 GHz with
0.5 GHz step size – 15 channels
High speed I/O connector for baseband signals
(100 Ω differential)
Multi-gigabit communications and wideband radar
> 1.5 GHz modulated bandwidth at 60 GHz
Also supports AM and FM modulation
Allows user defined baseband for any high
bandwidth application
Communications and radar modes supported
TX board, RX board, USB cables, GUI software
CD, power supply and bench-top tripods supplied
#1-VSWR
#3-VSWR
1.6
`
1.4
`
1.2
1.0
0
1000
2000
3000
4000
5000
6000
Rev 1.2
FREQUENCY (MHz)
®
Mini-Circuits
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
For detailed performance specs
& shopping online see web site
®
Provides ACTUAL Data Instantly at minicircuits.com
IF/RF MICROWAVE COMPONENTS
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
REV. OR
M128089
ZN4PD1-63W+
ED-12591/1
+,!$#0!100712
Page 2
65 Enterprise
Aliso Viejo, CA 92656, U.S.A
Telephone 949-226-8482
www.vubiq.com
FAX 815-572-0386
© 2008 Vubiq, Inc. All rights reserved.
Information furnished by Vubiq is believed to be accurate and reliable. However, no
responsibility is assumed by Vubiq for its use, nor for any infringements of patents or
other rights of third parties that may result from its use. Specifications subject to change
without notice. No license is granted by implication or otherwise under any patent or
patent rights of Vubiq. Trademarks and registered trademarks are the property of their
respective owners.
V60DSK01
V60DSK01
Transmitter Control Screen GUI
Rev 1.2
Receiver Control Screen GUI
page 2 of 4
Rev 1.2
page 3 of 4
Data Sheet
V60DSK01
39
40
2
1
J4
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
Function
GND
GND
TXFM QTX/RX QTXFM Q+
TX/RX Q+
GND
GND
TXFM ITX/RX ITXFM I+
TX/RX I+
GND
GND
NC
EXT CLK NC
EXT CLK +
NC
GND
Pin
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
Function
NC
AUX_IO_0
NC
AUX_IO_1
GND
AUX_IO_2
USB D+
AUX_IO_3
USB DAUX_IO_4
GND
AUX_IO_5
GND
GND
+5
AUX_IO_6
+5
AUX_IO_7
GND
GND
High Speed I/O Connector Pinout
Connector:
Mating Connector:
Samtec QTE-020-01-L-D-A
Samtec QSE-020-01-L-D-A
W6
W5
W10
W9
W4
W3
W2
W1
W8
W7
MCX
W1
W2
W3
W4
W5
W6
W7
W8
W9
W10
Function
TX/RX QTX/RX Q+
TX/RX ITX/RX I+
EXT CLK EXT CLK +
TXFM QTXFM Q+
TXFM ITXFM I+
Mar. 2010
DWDM CW DFB Laser Module
Applications
z OC-192/STM-64 DWDM Transmission
Systems
Descriptions
Expansion Board Connector Assignments
Connectors:
Mating Connectors:
MCX Receptacle
MCX Plug
Ordering Information
V60DSK01 60 GHz Development System
V60TBA01 Transmitter Board
V60RBA01 Receiver Board
USB Cables (2)
Bench Top Tripod (2)
5V Power Supply
GUI Control Software & Documentation CD
Optional Accessories
V60EXP01-KIT High Speed Expansion Board Kit
Breakout Board: MCX Coaxial Connectors to High Speed I/O Connector (2)
Phased Matched Coaxial Cables, MCX to SMA, 1 meter length (8)
Rev 1.2
FRL15DCWx-A8x-xxxxx-x
page 4 of 4
z FRL15DCWx series of DFB laser module is designed for long haul DWDM applications
with external intensity modulator.
z The polarization maintaining fiber pigtail enables to directly connect a modulator without
polarization control. The polarization state of output laser beam is maintained to a
consistent orientation.
z A strained multi-quantum well DFB laser diode chip is integrated with optical isolator,
thermo-electric cooler (TEC), thermistor and power monitor photodiode in an industry
standard hermetically sealed 14 pin butterfly package.
z This laser module complies with telecom requirements described in TelcordiaTM GR-468
and is manufactured in an ISOTM9001 certified production line.
Features
z
z
z
z
z
z
High optical output power up to 40mW
High side mode suppression ratio(SMSR)
Selected wavelength according to ITU-T Grid, C and L-band available
50GHz spacing available
Narrow linewidth available
RoHS compliant package
Absolute Maximum Ratings
Parameters
Sym. Min. Max. Unit
Storage Temperature
Tstg -40
85
°C
Operating Case Temperature Tc
-5
70
°C
VrLD
LD Reverse Voltage
2
V
IfLD
LD Forward Current
350 mA
TLD
LD Operating Temperature
20
35
°C
Relative Humidity
RH
0
85
%
Fiber Bend Radius
30
mm
Fiber Axial Pull Force
9.8
N
ODC-7R001E
1/5
Parameters
PD Reverse Voltage
PD Forward Current
TEC Current
TEC Voltage
Lead Soldering
Lead Soldering Duration
Torque Force
(Flatness : <20m)
Sym. Min. Max. Unit
VrPD
IfPD
Itec
Vtec
-
-
20
5
1.6
2.6
260
10
V
mA
A
V
°C
sec
-
-
0.1
Nm
Coaxial
Coaxial
Power Splitter/Combiner
4 Way-0°
50Ω
ZN4PD1-63W+
Power Splitter/Combiner
4 Way-0°
250 to 6000 MHz
50Ω
Maximum Ratings
Features
Operating Temperature
-55°C to 100°C
Storage Temperature
-55°C to 100°C
Power Input (as a splitter)
The Big Deal
s WIDEFREQUENCYBANDTO-(Z
s LOWINSERTIONLOSSD"TYP
s LOWAMPLITUDEUNBALANCED"TYP
s LOWPHASEUNBALANCEDEGTYP
10W max.
Internal Dissipation
3W max.
SUM PORT
3
PORT 1
1
PORT 2
2
PORT 3
4
PORT 4
5
+ RoHS compliant in accordance
with EU Directive (2002/95/EC)
s HIGHBAND0#3
s 5.))
s )3-!
s 7I&I
s "LUETOOTH
Coaxial Connections
#!3%349,%55
#!3%349,%55
Connectors Model
Price
Qty.
SMA
ZN4PD1-63W-S+
$119.95 (1-9)
Applications
Permanent damage may occur if any of these limits are exceeded.
s 7IDEBANDPERFORMANCE
s ,OWAMPLITUDEANDPHASEUNBALANCE
s 'OODINSERTIONLOSS
The +Suffix has been added in order to identify RoHS Compliance.
See our web site for RoHS Compliance methodologies and qualifications.
Electrical Specifications
Parameter
Frequency (MHz)
Phase Unbalance
Amplitude Unbalance
Product Overview
VSWR Input
This four-way, in-phase splitter and combiner covers a wide frequency range between 250-6000MHz, making this splitter now suitable for GPS, GSM, DCS and PCS frequency bands, in addition to WiFi, Bluetooth
and 802.11a uses. This model also features good insertion loss and amplitude and phase unbalance, and
is packaged in a 3.5”x 4.5” enclosure with built-in SMA connectors for ease of use.
Typ.
250
250-350
350-6000
250-350
350-5500
5500-6000
250-350
350-6000
250-350
350-6000
250-350
350-6000
250-350
350-6000
Insertion Loss Above 6.0 dB
Outline Drawing
VSWR Output
—
—
8
14
12
—
—
—
—
—
—
—
—
Max.
Unit
6000
MHz
0.3
1.2
14
20
20
—
—
—
—
1.2
1.3
1.1
1.3
0.8
3.0
—
—
—
3
6
0.3
0.6
—
—
—
—
dB
dB
Degree
dB
Typical Performance Data
Total Loss1
(dB)
S-3
Freq.
(MHz)
250.00
350.00
400.00
500.00
600.00
700.00
800.00
900.00
1000.00
2000.00
3000.00
4000.00
5000.00
5500.00
6000.00
Advantages
Good insertion loss
With typical insertion loss of only 1.0dB above the splitter loss up to 4GHz, this splitter supports medium
power signal distribution applications where loss is critical.
Good amplitude and phase performance
Typical amplitude unbalance of 0.2dB and phase unbalance of 2˚ make this splitter ideal for parallel path/
multichannel systems.
S-1
S-2
6.32
6.22
6.27
6.29
6.32
6.48
6.53
6.46
6.45
6.77
7.13
7.15
7.71
7.90
8.02
6.31
6.21
6.26
6.28
6.30
6.45
6.51
6.45
6.44
6.78
7.20
7.31
7.79
8.09
8.27
H
---
J
.33
8.38
C
.65
16.51
K
.50
12.70
D
.125
3.18
E
3.375
85.73
F
---
L
M
.400 4.100
10.16 104.14
S-4
Amp.
Unbal.
(dB)
1-2
6.33
6.22
6.28
6.31
6.34
6.49
6.54
6.47
6.46
6.79
7.15
7.22
7.82
8.07
8.27
0.02
0.02
0.02
0.03
0.04
0.04
0.02
0.02
0.02
0.02
0.10
0.17
0.17
0.20
0.25
11.87
20.88
26.84
27.50
24.35
21.55
23.25
30.37
25.00
28.30
17.84
18.76
25.57
21.38
17.38
Isolation
(dB)
2-3
3-4
19.38
23.90
27.53
45.87
31.29
26.77
25.64
26.45
29.71
29.48
27.02
33.24
29.50
34.53
27.14
11.99
20.88
26.56
27.33
24.14
21.98
23.96
29.80
25.26
28.24
17.39
18.64
26.88
21.02
17.61
Phase VSWR VSWR VSWR VSWR VSWR
S
1
2
3
4
Unbal.
(deg.)
0.27
0.30
0.30
0.38
0.50
0.60
0.66
0.69
0.70
1.45
1.70
2.48
3.27
3.47
4.04
1.46
1.12
1.24
1.21
1.17
1.42
1.48
1.31
1.22
1.33
1.36
1.25
1.58
1.24
1.26
1.09
1.05
1.06
1.10
1.10
1.10
1.14
1.13
1.05
1.22
1.12
1.22
1.41
1.32
1.21
1.09
1.05
1.07
1.10
1.11
1.11
1.15
1.15
1.06
1.24
1.11
1.27
1.44
1.37
1.22
1.09
1.05
1.08
1.11
1.11
1.12
1.15
1.14
1.06
1.23
1.08
1.26
1.45
1.36
1.20
1.10
1.05
1.07
1.10
1.10
1.10
1.14
1.13
1.06
1.23
1.12
1.24
1.42
1.37
1.24
4OTAL,OSS)NSERTION,OSSD"SPLITTERLOSS
Outline Dimensions ( inch
mm )
A
B
3.50
4.50
88.90 114.30
6.32
6.22
6.27
6.29
6.31
6.46
6.52
6.46
6.45
6.77
7.09
7.21
7.65
7.94
8.15
ZN4PD1-63W+
ISOLATION
ZN4PD1-63W+
TOTAL LOSS
G
.125
3.18
9.0
wt
grams
288
S-1 (dB)
S-3 (dB)
ISOLATION (dB)
The very wide bandwidth performance of the ZN4PD1-63W+ enables this splitter/combiner to be used in a
wide range of applications including broadband systems such as test, measurement and defense/aerospace.
However this model covers a variety of narrow band applications including GSM, GPS, DCS and PCS applications, in addition to WiFi, Bluetooth, 802.11a, U-NII and ISM applications.
TOTAL LOSS (dB)
Feature
Min.
Frequency Range
Isolation
Operating over a very wide bandwidth from
250MHz to 6000MHz
ZN4PD1-63W+
250 to 6000 MHz
8.0
7.0
6.0
0
1000
2000
3000
4000
5000
6000
60
55
50
45
40
35
30
25
20
15
1-2 (dB)
0
1000
2000
FREQUENCY (MHz)
VSWR (:1)
4000
5000
6000
Electrical Schematic
2.0
#S-VSWR
3000
3-4 (dB)
FREQUENCY (MHz)
ZN4PD1-63W+
VSWR
1.8
2-3 (dB)
#1-VSWR
#3-VSWR
1.6
1.4
1.2
1.0
0
1000
2000
3000
4000
5000
6000
FREQUENCY (MHz)
®
Mini-Circuits
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
®
Mini-Circuits
For detailed performance specs
& shopping online see web site
®
ISO 9001 ISO 14001 AS 9100 CERTIFIED
P.O. Box 350166, Brooklyn, New York 11235-0003 (718) 934-4500 Fax (718) 332-4661 The Design Engineers Search Engine
Provides ACTUAL Data Instantly at minicircuits.com
IF/RF MICROWAVE COMPONENTS
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
Prototype Target Specification
10mW 1.55μm Direct Modulated Analog Laser Module
>6GHz bandwidth
Page 1
Optical Characteristics
Table 1
Unless otherwise specified: Tlaser= 25°C, all parameters are BOL
Description
Symb
Conditions
Min
Tc
Ith
Iop
CW,
CW, @Popt
50
Popt
Vf
Eta
Zin
λm
SMSR
BW
S11
RIN
IMD2
IMD3
IMD3
Id
Iph
It
Vt
RTH
rT
CW, @Iop
CW, @Popt with 45Ω matching resistor
CW, @Popt=0 to 10mW
CW, @Popt
CW, @Popt
CW, @Popt, RL<=-24dB
@- 3 dB electrical, Popt, under 50Ω
@Popt, 0.1 to 6 GHz, , under 50Ω
@Popt, 0.1 to 6 GHz, , under 50Ω, ORL<-35dB
@Popt; @f1+f2; m=20%; f1= 900MHz; f2= 910MHz
@Popt; @2f2-f1; m=20%; f1=2145MHz; f2=2155MHz
@Popt; @2f2-f1; m=20%; f1=3795MHz; f2=3805MHz
Vd= - 5 V
@Popt , Vd= - 5 V
@Popt, Iopmax=80mA, Tc= 40 °C
@Popt, Iop max=80mA , Tc= 40 °C
Tsubmount= 25°C
Tsubmount= 25°C
Operating Case temperature
Threshold current
Operating Laser Bias current
ƒ50Ω RF impedance
ƒInGaAsP monolithically
integrated DFB laser chip
ƒLow RIN
Applications:
ƒRadio Fiber System
ƒFiber to the Antenna
REV. OR
M128089
ZN4PD1-63W+
ED-12591/1
+,!$#0!100712
Page 2
Notes: 1. Performance and quality attributes and conditions not expressly stated in this specification sheet are intended to be excluded and do not form a part of this specification sheet. 2. Electrical specifications
and performance data contained herein are based on Mini-Circuit’s applicable established test performance criteria and measurement instructions. 3. The parts covered by this specification sheet are subject to
Mini-Circuits standard limited warranty and terms and conditions (collectively, “Standard Terms”); Purchasers of this part are entitled to the rights and benefits contained therein. For a full statement of the Standard
Terms and the exclusive rights and remedies thereunder, please visit Mini-Circuits’ website at www.minicircuits.com/MCLStore/terms.jsp.
Parameter
ƒ7-pin package with GPO
connector RF input
Provides ACTUAL Data Instantly at minicircuits.com
PROTOTYPE
10mW 1.55μm Direct Modulated Analog Laser Module >6GHz bandwidth
PROTOTYPE
Features:
For detailed performance specs
& shopping online see web site
®
IF/RF MICROWAVE COMPONENTS
The 1915 LMA contains a 3S PHOTONICS DFB laser specifically developed for
analog direct modulated applications.
The product is offered into a high frequency package with RF connector for the
prototyping stage.
The 1915 LMA is optimized for high frequency analog signal transmission
suitable for Mobile analog transmission from Base Station (BTS) to remote
antenna and High Frequency Radio on Fiber applications
Average Optical output power
Laser forward voltage
Slope Efficiency
Input Impedance
Emission wavelength
Side mode suppression
Modualtion Bandwidth
Input return loss
Relative Intensity Noise
IMD2
IMD3
IMD3
Monitor dark current
Monitor diode current
TEC current
TEC voltage
Thermistor resistance
Coefficient of RTH
Typ
Max
Unit
40
30
80
°C
mA
mA
0
10
5
0.14
1530
35
6
10
0.2
50
1560
9
-160
-150
-50
-70
-65
10
30
1
2
10.5
-5
9.5
-3
Absolute Maximum Ratings
Exposure to absolute maximum rating conditions for extended periods may affect device performances.
Table 2
Min
Max
Operating case temperature
0
40
°C
Storage temperature
Laser forward current
Parameters
0
-
40
150
°C
mA
Laser forward voltage
-
7.5
V
Photodiode forward current
Photodiode reverse voltage
-
5
20
mA
V
TEC voltage
TEC current
-
2.5
1.4
V
A
-
2000
10
Laser ESD (Human Body Model)
Lead soldering time (at 260°C)
Fiber bend radius
Packing mounting screw torque
25
Unit
V
s
mm
0.2
N.m
mW
V
mW/mA
Ω
nm
dB
GHz
dB
dB/Hz
dBc
dBc
dBc
nA
μA
A
V
kΩ
K-1
PROTOTYPE
10mW 1.55μm Direct Modulated Analog Laser Module >6GHz bandwidth
PROTOTYPE
10mW 1.55μm Direct Modulated Analog Laser Module >6GHz bandwidth
Mechanical Details
Device marking
The device shall be legibly and permanently marked with the following information:
3S PHOTONICS logo
Product family name: 1915 LMA
Product code : 3CN number (see Ordering information section)
Serial number
Shipment packing
Each device is individually packed in an anti-static container and in such a manner as to prevent damage in transit.
The packing shall include the following information:
3S PHOTONICS logo
Product family name : 1915 LMA
Product code : 3CN number (see Ordering information section)
Serial number
Hazard warning label (ESD)
Laser Safety Class Label
Deliverable data
The following data shall be supplied with each device:
L(I) / Im(I) curves
Rated output power, Threshold current, Laser current at rated power (Iop), Monitor photodiode current at rated power, TEC
voltage, TEC current, SMSR
Laser Safety Information
Take appropriate precautions to prevent undue exposure to naked eye.
This product is classified Class 1M Laser Product according to IEC-60825-1: edition2.
All versions are Class IIIB laser products per 21 CFR 1040-10 Laser. Safety requirements under accession number
0120546-00.
Handling
Dimensions are in mm
Fiber length 1600 ± 100 mm
(including optical connector)
This product is sensitive to electrostatic discharge and should not be handled except at a static free workstation. Take
precautions to prevent ESD; use wrist straps, grounded work surfaces and recognized anti-static techniques when
handling the 1915 LMA module.
Handle the laser module by its package only, never hold it by its pigtail.
Care should be taken to avoid supply transient and over voltage. Over voltage above the maximum specified in absolute
maximum rating section may cause permanent damage to the device.
Pin Out
N°
Description
1
2
3
4
5
6
7
8
Case
Thermistor
Thermistor
Not Connected
Photodetector Anode (-)
Photodetector Cathode (+)
TEC (+)
TEC (-)
Laser LD Anode (50Ω)
Ground, laser cathode
ATTEN TION
OBSERVE
PRECAUTIONS FOR
HANDLING
ELECTROSTATIC
DISCHARGE
SENSITIVE DEVICES
60 GHz Development System
PROTOTYPE
10mW 1.55μm Direct Modulated Analog Laser Module >6GHz bandwidth
V60DSK01
Technical Overview
Features
Ordering information
1915LMA
Application
Analog 10mW DML
Part number
3CN01366AA
Output Power
10mW
Bandwidth
>6GHz
Optical
Connector
LC/PC
Transmitter board hosts Vubiq V60TX101 μModule
transmitter with integrated antenna
Receiver board hosts Vubiq V60RX101 μModule
receiver with integrated antenna
Configuration and control via USB interface
57 to 64 GHz unlicensed band
On chip synthesizer covers 57.0 to 64.0 GHz with
0.5 GHz step size – 15 channels
High speed I/O connector for baseband signals
(100 Ω differential)
Multi-gigabit communications and wideband radar
> 1.5 GHz modulated bandwidth at 60 GHz
Also supports AM and FM modulation
Allows user defined baseband for any high
bandwidth application
Communications and radar modes supported
TX board, RX board, USB cables, GUI software
CD, power supply and bench-top tripods supplied
User-Defined
Baseband
V60TX101
V60RX101
bIQ
bIQ
V60TBA01 TX Board
V60TBA01 RX Board
Note: For detailed technical
specifications on the 60 GHz μModules,
see V60TX101 and V60RX101 data
sheets
User-Defined
Baseband
60 GHz Test Set Up for
Broadband Communications
bIQ
High-Speed
Baseband
Connector
bIQ
Transmitter
μModule
Receiver
μModule
USB
Controller
USB
Controller
`
High-Speed
Baseband
Connector
`
Rev 1.2
Customized versions are available for volume quantities.
Performance figures contained in this document must be specifically confirmed in writing by 3S PHOTONICS before they become applicable to
any order or contract. 3S PHOTONICS reserves the right to make changes to the products or information contained herein without notice.
For additional information, contact your Account Manager, or the following:
sales@3Sphotonics.com
Internet: http://www.3Sphotonics.com
©2007 3S PHOTONICS S.A. All rights reserved
©2007 3S PHOTONICS S.A. All rights reserved
December 2008
January 2010
65 Enterprise
Aliso Viejo, CA 92656, U.S.A
Telephone 949-226-8482
www.vubiq.com
FAX 815-572-0386
© 2008 Vubiq, Inc. All rights reserved.
Information furnished by Vubiq is believed to be accurate and reliable. However, no
responsibility is assumed by Vubiq for its use, nor for any infringements of patents or
other rights of third parties that may result from its use. Specifications subject to change
without notice. No license is granted by implication or otherwise under any patent or
patent rights of Vubiq. Trademarks and registered trademarks are the property of their
respective owners.
V60DSK01
V60DSK01
Transmitter Control Screen GUI
Rev 1.2
Receiver Control Screen GUI
page 2 of 4
Rev 1.2
page 3 of 4
Data Sheet
V60DSK01
39
40
2
1
J4
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
Function
GND
GND
TXFM QTX/RX QTXFM Q+
TX/RX Q+
GND
GND
TXFM ITX/RX ITXFM I+
TX/RX I+
GND
GND
NC
EXT CLK NC
EXT CLK +
NC
GND
Pin
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
Function
NC
AUX_IO_0
NC
AUX_IO_1
GND
AUX_IO_2
USB D+
AUX_IO_3
USB DAUX_IO_4
GND
AUX_IO_5
GND
GND
+5
AUX_IO_6
+5
AUX_IO_7
GND
GND
High Speed I/O Connector Pinout
Connector:
Mating Connector:
Samtec QTE-020-01-L-D-A
Samtec QSE-020-01-L-D-A
W6
W5
W10
W9
W4
W3
W2
W1
W8
W7
MCX
W1
W2
W3
W4
W5
W6
W7
W8
W9
W10
Function
TX/RX QTX/RX Q+
TX/RX ITX/RX I+
EXT CLK EXT CLK +
TXFM QTXFM Q+
TXFM ITXFM I+
Mar. 2010
DWDM CW DFB Laser Module
Applications
z OC-192/STM-64 DWDM Transmission
Systems
Descriptions
Expansion Board Connector Assignments
Connectors:
Mating Connectors:
MCX Receptacle
MCX Plug
Ordering Information
V60DSK01 60 GHz Development System
V60TBA01 Transmitter Board
V60RBA01 Receiver Board
USB Cables (2)
Bench Top Tripod (2)
5V Power Supply
GUI Control Software & Documentation CD
Optional Accessories
V60EXP01-KIT High Speed Expansion Board Kit
Breakout Board: MCX Coaxial Connectors to High Speed I/O Connector (2)
Phased Matched Coaxial Cables, MCX to SMA, 1 meter length (8)
Rev 1.2
FRL15DCWx-A8x-xxxxx-x
page 4 of 4
z FRL15DCWx series of DFB laser module is designed for long haul DWDM applications
with external intensity modulator.
z The polarization maintaining fiber pigtail enables to directly connect a modulator without
polarization control. The polarization state of output laser beam is maintained to a
consistent orientation.
z A strained multi-quantum well DFB laser diode chip is integrated with optical isolator,
thermo-electric cooler (TEC), thermistor and power monitor photodiode in an industry
standard hermetically sealed 14 pin butterfly package.
z This laser module complies with telecom requirements described in TelcordiaTM GR-468
and is manufactured in an ISOTM9001 certified production line.
Features
z
z
z
z
z
z
High optical output power up to 40mW
High side mode suppression ratio(SMSR)
Selected wavelength according to ITU-T Grid, C and L-band available
50GHz spacing available
Narrow linewidth available
RoHS compliant package
Absolute Maximum Ratings
Parameters
Sym. Min. Max. Unit
Storage Temperature
Tstg -40
85
°C
Operating Case Temperature Tc
-5
70
°C
VrLD
LD Reverse Voltage
2
V
IfLD
LD Forward Current
350 mA
TLD
LD Operating Temperature
20
35
°C
Relative Humidity
RH
0
85
%
Fiber Bend Radius
30
mm
Fiber Axial Pull Force
9.8
N
ODC-7R001E
1/5
Parameters
PD Reverse Voltage
PD Forward Current
TEC Current
TEC Voltage
Lead Soldering
Lead Soldering Duration
Torque Force
(Flatness : <20m)
Sym. Min. Max. Unit
VrPD
IfPD
Itec
Vtec
-
-
20
5
1.6
2.6
260
10
V
mA
A
V
°C
sec
-
-
0.1
Nm
Data Sheet
Data Sheet
FRL15DCWx-A8x-xxxxx-x
FRL15DCWx-A8x-xxxxx-x
Mar. 2010
Mar. 2010
Specifications (Tc=25°C, BOL*1 unless otherwise specified)
Parameters
Symbol
Optical Output Power
FRL15DCWA
FRL15DCWB
FRL15DCWD
LD Forward Current
FRL15DCWA
FRL15DCWB
FRL15DCWD
LD Operating Temperature
LD Forward Voltage
FRL15DCWA, B
FRL15DCWD
Threshold Current
Min.
Pf
If
TLD
Vf
10
20
40
-
-
20
-
80
150
300
35
mW CW
mA
Rated power, CW
°C
Rated power, CW
V
Ith
1.8
2.5
40
mA
ITU-0.1
ITU
ITU+0.1
nm
-
-
10
5
2
1
45
-
dB
30
-
-
dB
-
-133
-138
-140
0.05
0.1
0.15
-0.5
9.5
3900
-
1
2
3
100
0.5
1.2
2.4
10.5
20
-
-
Rated power, CW
Rated power, CW
See Table.1
Rated Power, CW
MHz Option C is available only
for FRL15DCWD.
35
-
Table 1
Rated power, CW
Rated power, CW
dB/Hz OpRL<-25dB*2
100MHz<f<10GHz
mA
1529.55
ITU Freq.
[THz]
196.00
Wavelength
code
19600
1556.55
ITU Freq.
[THz]
192.60
Wavelength
code
19260
1584.53
ITU Freq.
[THz]
189.20
Wavelength
code
18920
1530.33
195.90
19590
1557.36
192.50
19250
1585.36
189.10
18910
1531.12
195.80
19580
1558.17
192.40
19240
1586.20
189.00
18900
1531.90
195.70
19570
1558.98
192.30
19230
1587.04
188.90
18890
1532.68
195.60
19560
1559.79
192.20
19220
1587.88
188.80
18880
1533.47
195.50
19550
1560.61
192.10
19210
1588.73
188.70
18870
1534.25
195.40
19540
1561.42
192.00
19200
1589.57
188.60
18860
1535.04
195.30
19530
1562.23
191.90
19190
1590.41
188.50
18850
1535.82
195.20
19520
1563.05
191.80
19180
1591.26
188.40
18840
1536.61
195.10
19510
1563.86
191.70
19170
1592.10
188.30
18830
1537.40
195.00
19500
1564.68
191.60
19160
1592.95
188.20
18820
1538.19
194.90
19490
1565.50
191.50
19150
1593.79
188.10
18810
1538.98
194.80
19480
1566.31
191.40
19140
1594.64
188.00
18800
1539.77
194.70
19470
1567.13
191.30
19130
1595.49
187.90
18790
1540.56
194.60
19460
1567.95
191.20
19120
1596.34
187.80
18780
1541.35
194.50
19450
1568.77
191.10
19110
1597.19
187.70
18770
1542.14
194.40
19440
1569.59
191.00
19100
1598.04
187.60
18760
1542.94
194.30
19430
1570.42
190.90
19090
1598.89
187.50
18750
1543.73
194.20
19420
1571.24
190.80
19080
1599.75
187.40
18740
1544.53
194.10
19410
1572.06
190.70
19070
1600.60
187.30
18730
1545.32
194.00
19400
1572.89
190.60
19060
1601.46
187.20
18720
1546.12
193.90
19390
1573.71
190.50
19050
1602.31
187.10
18710
1546.92
193.80
19380
1574.54
190.40
19040
1603.17
187.00
18700
1547.72
193.70
19370
1575.37
190.30
19030
1604.03
186.90
18690
1548.51
193.60
19360
1576.20
190.20
19020
1604.88
186.80
18680
1549.32
193.50
19350
1577.03
190.10
19010
1605.74
186.70
18670
1550.12
193.40
19340
1577.86
190.00
19000
1606.60
186.60
18660
1550.92
193.30
19330
1578.69
189.90
18990
1607.47
186.50
18650
1551.72
193.20
19320
1579.52
189.80
18980
1608.33
186.40
18640
1552.52
193.10
19310
1580.35
189.70
18970
1609.19
186.30
18630
1553.33
193.00
19300
1581.18
189.60
18960
1610.06
186.20
18620
1554.13
192.90
19290
1582.02
189.50
18950
1610.92
186.10
18610
1554.94
192.80
19280
1582.85
189.40
18940
1611.79
186.00
18600
1555.75
192.70
19270
1583.69
189.30
18930
ITU [nm]
Unit Conditions
15
Linewidth (-3dB fullwidth)
Standard
Option A
Option B
Option C
Side Mode Suppression
SMSR
Ratio
Optical Isolation
Iso
Relative Intensity Noise
FRL15DCWA
RIN
FRL15DCWB
FRL15DCWD
Monitor Current
FRL15DCWA
Im
FRL15DCWB
FRL15DCWD
Monitor Dark Current
Id
Tracking Error
TE
TEC Current
Itec
TEC Voltage
Vtec
Thermistor B constant
B
Thermistor Resistance
R
Polarization Extinction
Er
Ratio
*1 BOL : Beginning of Life
*2 OpRL : Optical Return Loss
Max.
-
Wavelength
ODC-7R001E
Typ.
Rated power, CW
VrPD=5V
nA
dB
A
V
K
k
VrPD=5V
Im=constant, Tc=-5 to 70°C
Tc=70°C, Rated power, CW
Tc=70°C, Rated power, CW
dB
Rated power, CW
ITU [nm]
TLD=25°C
Wavelength values are referenced to vacuum.
50GHz spacing is also available.
Other ITU wavelengths may be available. Please ask to the regional contacts.
Wavelength () and ITU frequency (f) have a relationship of [nm] = 299792458 / f [THz] /1000.
FITEL wavelength code is expressed as a 5-digit integer rounded from 100 x f [THz].
ODC-7R001E
2/5
3/5
Data Sheet
Data Sheet
FRL15DCWx-A8x-xxxxx-x
FRL15DCWx-A8x-xxxxx-x
Mar. 2010
Mar. 2010
Dimensions and Pin Assignments
Optical Fiber Pigtail Specifications
Unit: mm
15.24
2.8
(2.54)
(26)
1000 MIN
14-0.5
8.3 -+0.2
6.7
4-2.7
(15.2)
6.2
4-C0.3
ITU [nm]
PMF
SMF
0.9
Parameters
Specification
Unit
Polarization maintaining(PANDA) fiber
Frame retardant HytrelTM coating(0.9mm)
Nominal Fiber Length Min.1,000
Connector Type
FC/SPC Connector
Polarization Axis
Slow Axis
Fiber Type
mm
-
Ordering Information
Wavelength code
11MIN
8.9 +- 0.15
12.7 +- 0.15
㩷 㩷 㩷 㩷 FRL15DCW? – A8? - ????? - ?
20.83
26.0 +- 0.15
0.2
FC/SPC
SC/SPC
30.0 +- 0.2
(5.3)
LD Anode Ground
7
6
5
4
2
3
8
9
PIN No.
Function
PIN No.
Function
1
Thermistor
8
Case Ground
Case Ground
TH
L1
180nH
10k
TEC
CASE
1
R1
20
10
2
Thermistor
9
3
LD Cathode(-)
10
No Connect
4
Monitor Anode(-)
11
LD Anode(+),
Case Ground
5
Monitor Cathode(+)
12
LD Cathode(RF)
6
TEC(+)
13
LD Anode(+),
Case Ground
TEC(-)
14
No Connect
11
12
13
14
7
4
3
2
1
PIN No.
Function
PIN No.
Function
1
Thermistor
8
Case Ground
Case Ground
LD Anode Float
7
6
5
L1
180nH
TEC
CASE
8
9
ODC-7R001E
TH
11
12
Thermistor
9
3
LD Cathode(-)
10
No Connect
4
Monitor Anode(-)
11
LD Anode(+)
5
Monitor Cathode(+)
12
LD Cathode(RF)
6
TEC(+)
13
LD Anode(+)
7
TEC(-)
14
No Connect
Pin Assignment
1: LD Anode Ground
2: LD Anode Float
Linewidth Option
Blank: <10MHz(Standard)
A: < 5MHz
B: < 2MHz
C: < 1MHz(40mW only)
Safety Information
This product complies with 21 CFR 1040.10 and 1040.11, Class 3b laser product. Invisible laser radiation
is emitted from the end of the fiber or connector. Avoid direct exposure to the beam.
DANGER
Telcordia is a trademark of Telcordia Technologies, Inc.
ISO is a trademark of The International Organization for Standardization.
Hytrel is a trademark of DuPont.
INVISIBLE LASER RADIATION
AVOID DIRECT EXPOSURE TO BEAM
MAXIMUM OUTPUT POW ER: 500mW
W AVELENGTH: 960 to 1680nm
CLASS IIIb LASER PRODUCT
Furukawa Electric reserves the right to improve, enhance and modify the features and specifications of FITEL products
without prior notifications.
10k
R1
20
10
2
Optical Output Power
A: 10mW
B: 20mW
D: 40mW
13
14
4/5
Japan
Head Office
2-2-3, Marunouchi
Chiyoda-ku
Tokyo 100-8322, JAPAN
Tel: +81-3-3286-3253
Fax: +81-3-3286-3978
http://www.furukawa.co.jp
Email:comsales@ho.furukawa.co.jp
ODC-7R001E
North America
OFS Fitel, LLC
Specialty Photonics Division
25 Schoolhouse Road
Somerset, NJ 08873 USA
Tel: +1-732-748-7402
Fax: +1-732-748-7436
http://www.SpecialtyPhotonics.com
E-mail:info@SpecialtyPhotonics.com
5/5
Europe
Furukawa Electric Europe Ltd.
3rd Floor, Newcombe House
43-45 Notting Hill Gate
London W11 3FE, UK
Tel: +44-20-7221-6000
Fax: +44-20-7313-5310
http://www.furukawa-fitel.co.uk
E-mail:sales@furukawa-fitel.co.uk
ASIA
Furukawa Electric Hong Kong Ltd.
Suite 2606, Shell Tower,
Times Square,1 Matheson Street,
Causeway Bay, Hong Kong
Tel: 852-2512-8938
Fax: 852-2512-9717
http://www.fehk.com.hk/
E-mail: guest@fehk.cn
PROTOTYPE
10mW 1.55μm Direct Modulated Analog Laser Module >6GHz bandwidth
PROTOTYPE
Prototype Target Specification
10mW 1.55μm Direct Modulated Analog Laser Module
>6GHz bandwidth
Optical Characteristics
Table 1
Unless otherwise specified: Tlaser= 25°C, all parameters are BOL
Parameter
Features:
Description
Symb
Conditions
Min
Tc
Ith
Iop
CW,
CW, @Popt
50
Popt
Vf
Eta
Zin
λm
SMSR
BW
S11
RIN
IMD2
IMD3
IMD3
Id
Iph
It
Vt
RTH
rT
CW, @Iop
CW, @Popt with 45Ω matching resistor
CW, @Popt=0 to 10mW
CW, @Popt
CW, @Popt
CW, @Popt, RL<=-24dB
@- 3 dB electrical, Popt, under 50Ω
@Popt, 0.1 to 6 GHz, , under 50Ω
@Popt, 0.1 to 6 GHz, , under 50Ω, ORL<-35dB
@Popt; @f1+f2; m=20%; f1= 900MHz; f2= 910MHz
@Popt; @2f2-f1; m=20%; f1=2145MHz; f2=2155MHz
@Popt; @2f2-f1; m=20%; f1=3795MHz; f2=3805MHz
Vd= - 5 V
@Popt , Vd= - 5 V
@Popt, Iopmax=80mA, Tc= 40 °C
@Popt, Iop max=80mA , Tc= 40 °C
Tsubmount= 25°C
Tsubmount= 25°C
Operating Case temperature
Threshold current
Operating Laser Bias current
ƒ7-pin package with GPO
connector RF input
ƒ50Ω RF impedance
ƒInGaAsP monolithically
integrated DFB laser chip
ƒLow RIN
The 1915 LMA contains a 3S PHOTONICS DFB laser specifically developed for
analog direct modulated applications.
The product is offered into a high frequency package with RF connector for the
prototyping stage.
The 1915 LMA is optimized for high frequency analog signal transmission
suitable for Mobile analog transmission from Base Station (BTS) to remote
antenna and High Frequency Radio on Fiber applications
Applications:
ƒRadio Fiber System
ƒFiber to the Antenna
Average Optical output power
Laser forward voltage
Slope Efficiency
Input Impedance
Emission wavelength
Side mode suppression
Modualtion Bandwidth
Input return loss
Relative Intensity Noise
IMD2
IMD3
IMD3
Monitor dark current
Monitor diode current
TEC current
TEC voltage
Thermistor resistance
Coefficient of RTH
Typ
Max
Unit
40
30
80
°C
mA
mA
0
10
5
0.14
1530
35
6
10
0.2
50
1560
9
-160
-150
-50
-70
-65
10
30
1
2
10.5
-5
9.5
-3
Absolute Maximum Ratings
Exposure to absolute maximum rating conditions for extended periods may affect device performances.
Table 2
Min
Max
Operating case temperature
0
40
°C
Storage temperature
Laser forward current
Parameters
0
-
40
150
°C
mA
Laser forward voltage
-
7.5
V
Photodiode forward current
Photodiode reverse voltage
-
5
20
mA
V
TEC voltage
TEC current
-
2.5
1.4
V
A
-
2000
10
Laser ESD (Human Body Model)
Lead soldering time (at 260°C)
Fiber bend radius
25
Packing mounting screw torque
PROTOTYPE
10mW 1.55μm Direct Modulated Analog Laser Module >6GHz bandwidth
Unit
V
s
mm
0.2
N.m
PROTOTYPE
10mW 1.55μm Direct Modulated Analog Laser Module >6GHz bandwidth
Mechanical Details
Device marking
The device shall be legibly and permanently marked with the following information:
3S PHOTONICS logo
Product family name: 1915 LMA
Product code : 3CN number (see Ordering information section)
Serial number
Shipment packing
Each device is individually packed in an anti-static container and in such a manner as to prevent damage in transit.
The packing shall include the following information:
3S PHOTONICS logo
Product family name : 1915 LMA
Product code : 3CN number (see Ordering information section)
Serial number
Hazard warning label (ESD)
Laser Safety Class Label
Deliverable data
The following data shall be supplied with each device:
L(I) / Im(I) curves
Rated output power, Threshold current, Laser current at rated power (Iop), Monitor photodiode current at rated power, TEC
voltage, TEC current, SMSR
Laser Safety Information
Take appropriate precautions to prevent undue exposure to naked eye.
This product is classified Class 1M Laser Product according to IEC-60825-1: edition2.
All versions are Class IIIB laser products per 21 CFR 1040-10 Laser. Safety requirements under accession number
0120546-00.
Dimensions are in mm
Fiber length 1600 ± 100 mm
(including optical connector)
Pin Out
N°
Description
1
2
3
4
5
6
7
8
Case
Thermistor
Thermistor
Not Connected
Photodetector Anode (-)
Photodetector Cathode (+)
TEC (+)
TEC (-)
Laser LD Anode (50Ω)
Ground, laser cathode
Handling
This product is sensitive to electrostatic discharge and should not be handled except at a static free workstation. Take
precautions to prevent ESD; use wrist straps, grounded work surfaces and recognized anti-static techniques when
handling the 1915 LMA module.
Handle the laser module by its package only, never hold it by its pigtail.
Care should be taken to avoid supply transient and over voltage. Over voltage above the maximum specified in absolute
maximum rating section may cause permanent damage to the device.
ATTEN TION
OBSERVE
PRECAUTIONS FOR
HANDLING
ELECTROSTATIC
DISCHARGE
SENSITIVE DEVICES
mW
V
mW/mA
Ω
nm
dB
GHz
dB
dB/Hz
dBc
dBc
dBc
nA
μA
A
V
kΩ
K-1
Covega Corporation
10335 Guilford Road, Jessup, MD 20794, USA
Phone: +1 877.226.8342 Fax: +1 240.456.7200
Email: sales@covega.com Web: http://www.covega.com
LN 058: Low V Analog Modulator
PROTOTYPE
10mW 1.55μm Direct Modulated Analog Laser Module >6GHz bandwidth
7.1.2.SP.0058 Rev D
Preliminary Model
Description
Ordering information
The Low V Intensity Modulator was designed for
high performance analog transmission in microwave
optical links. Operating frequencies to 20 GHz are
supported, with an industry-leading low Vpi. The
Low V Intensity Modulator is a single-ended drive
modulator
based
on
the
Mach-Zehnder
interferometric architecture, using titanium-indiffused
lithium niobate substrates.
1915LMA
Application
Part number
Output Power
Bandwidth
Optical
Connector
Analog 10mW DML
3CN01366AA
10mW
>6GHz
LC/PC
Features
Applications
Very Low Vpi (<3.9V at 20 GHz)
Excellent Performance to 20 GHz
3
Microwave optical links
3
Antenna remoting
3
High-speed test equipment
Long-Term Bias Stability
Hermetic Packaging - High Reliability Telcordia GR-468 Compliant
C & L Band Operation
Ordering Information
LN 058-20-X-X-X
Part #
Bandwidth
058
20 = 20 GHz
Output
Fiber Type
S = SMF*
P = PMF
Input
Connector
S = SC/PC*
B = Bare Fiber
F = FC/uPC
L = LC/PC
A = FC/aPC
M = Mu
Output
Connector
S = SC/PC*
B = Bare Fiber
F = FC/uPC
L = LC/PC
A = FC/aPC
M = Mu
* Default options unless otherwise specified
Customized versions are available for volume quantities.
Covega Corporation - All rights reserved
Performance figures contained in this document must be specifically confirmed in writing by 3S PHOTONICS before they become applicable to
any order or contract. 3S PHOTONICS reserves the right to make changes to the products or information contained herein without notice.
For additional information, contact your Account Manager, or the following:
sales@3Sphotonics.com
1/2
Internet: http://www.3Sphotonics.com
©2007 3S PHOTONICS S.A. All rights reserved
©2007 3S PHOTONICS S.A. All rights reserved
December 2008
January 2010
Covega Corporation
10335 Guilford Road, Jessup, MD 20794, USA
Phone: +1 877.226.8342 Fax: +1 240.456.7200
Email: sales@covega.com Web: http://www.covega.com
Compact Low Cost
Booster EDFA (Full Function)
LN 058
Specifications
Parameter
Min
Typ
Max
Optical Specifications
Environmental:
Operating Case Temperature
0
Storage Temperature
70
-40
85
C
C
Optical:
Operating Wavelength
1525
1605
Optical Insertion Loss (Connectorized)
Insertion Loss Variation (EOL)
-0.5
nm
5.5
dB
0.5
dB
Optical Return Loss
40
dB
Optical On/Off Extinction Ratio (@ DC)
20
dB
Electrical:
S11 (dc to 20 GHz)
-12
-10
dB
V @ 20 GHz
3.5
3.9
V
V @ DC
1.5
2
V
Mechanical
RF Connection
SMA Connector
Bias Connection
Lead Pins
SPECIFICATIONS SUBJECTED TO CHANGE WITHOUT NOTICE
Features/Benefits
Parameters
- Low cost
- APC, ACC mode
- Low power consumption
- Wide operating temperature range
- Standard communication interface
(RS232, I2C)
Operating Wavelength Range
Applications
- Metropolitan and access networks
- Digital CATV
- Amplet for long-haul network
- Single-channel or DWDM sub-systems
- Optical cross-connects
- Optical add/drop modules
- Amplifier for transmitter line card
- Power equalization and flexible
pre-emphasis
Unit
Min.
Typ.
Max.
nm
1528
-
1562
Input Optical Power (pin)
dBm
Total Output Power @ Pin= -6 ~ 0dBm
dBm
- 10
8
10
15
-
0
-
Noise Figure
dB
-
6
7
Polarization Dependent Gain
dB
-
-
0.5
0.5
Polarization Mode Dispersion
ps
-
-
Return Loss (pump LD off)
dB
35
-
-
Operating Temperature Range
°C
-5
-
70
Fiber Type
-
SMF-28, 900μm loose tube
Dimensions
mm
40 x 70 x 12
Electrical Specifications
Parameters
Unit
Min.
Typ.
dB
- 0.5
-
Power Supply Voltage
V
3.1
3.3
3.5
Power Consumption
W
-
-
1.0/1.5*
Output Monitor Accuracy
Packaging
Full Function Pin Assignment
Max.
+ 0.5
*1.0W for 8dBm & 10dBm output power options; 1.5W for 15dBm output power option.
Input
RF +DC
NC
NC
2
Pin
RS-232
IC
1
Serial input
Serial bi-di data
2
GND
GND
3
Serial output
Serial clock
4
Alarm status
Alarm status
5
GND
GND
6
Power supply
+3.3V
Power supply
+3.3V
Dimensions
Dimensions in mm unless otherwise specified; Tolerances are ± 0.05 (decimals) ± 1 (angles)
Ordering Information
The laser diodes and photodiodes in the module can be easily
destroyed by electrostatic discharge. Use wrist straps,
grounded work surfaces, and
anti-static techniques when operating this module. When not in
use, the module shall be kept in
a static-free environment.
N
O
A
B
F
0
1= APC
2= ACC
www.lightwaves2020.com
Unit: mm (inch)
0
0
1
1
Connector
Default
Mode
Output Power
@ Pin= - 6dBm
08= 8dBm
10= 10dBm
15= 15dBm
This product information is subject to change without notice.
Device used same housing as Mach10 004, with pin re-assignments
2/2
Side view
Bottom view
Safety Information
ESD Protection
0= None
1= FC/UPC
2= FC/APC
3= SC/UPC
4= SC/APC
5= LC/UPC
Pigtail Type
6= MU/UPC
1= 900μm loose tube
Fiber Length
1= 1.0 ± 0.1m
Electronic
Interface
R= RS-232
C= I2C
1