Uploaded by saleh tarek

AUTOSAR (1)

advertisement
Follow us
Press
here
1
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Automotive Embedded
Systems part5
(Introduction to AUTOSAR).
ENG.KEROLES SHENOUDA
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
2
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Introduction to AUTOSAR
it's time to wake up 
Learn In Depth 
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Background
3
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 Today’s automotive industry is faced with
a growing demand for technical
appliances and this requires an increased
use of ECUs which is reflected in the
complexity of the system.
 Traditionally, solutions have been specific
for a certain platform or model and this
structure is more becoming unmanageable
and costly.

Instead of making specific solutions a
standardized future is the way to go.
 This
increased complexity could be
manageable and improved by a
standardized architecture and the
solution is
AUTOSAR
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
(AUTomotive Open System ARchitecture)
4
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 The main objective of
 Improve software quality and reduce costs by re-use
 Re-use of functions across carlines and across OEM boundaries
 Re-use of development methods and tools
 Re-use of basic software
AUTOSAR makes the application software independent from
the hardware
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
(AUTomotive Open System ARchitecture)
5
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 Application software that supports the AUTOSAR standard will receive
several benefits.
 The following examples are the driving forces why we need AUTOSAR as
listed in :
 Manage increasing E/E complexity – Associated with growth in functional scope.
 Improve flexibility – More room for updates, upgrades and modifications.
 Improve scalability – The system can in a more graceful manner be enlarged.
 Improve quality and reliability – Proven software applications can be reused.
 Detection of errors in early design phases
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Reusability
6
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Automotive industry
7
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Automotive industry
Source: www.autosar.org
8
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
AUTOSAR Layered Architecture
Source: www.autosar.org
9
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
10
AUTOSAR: Specifications
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
11
AUTOSAR: Specifications
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
AUTOSAR is still growing
12
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
13
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
What is the AUTOSAR standard
and why is it created?
https://www.facebook.com/groups/embedded.system.KS/
Follow us
What is the AUTOSAR standard and
why is it created?
Press
here
14
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 AUTOSAR is standardized software architecture developed in
cooperation between car manufacturers originally intended for the
automotive industry but is steadily gaining interest from other
industries as well.
 AUTOSAR was developed with the intention of being able to handle
the increased complexity in today’s automotive industry and to
decouple software from hardware.
 Also Integration of functional modules from multiple suppliers
 Software updates and upgrades over vehicle lifetime
 Consideration of availability and safety requirements
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
15
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
AUTOSAR
Benefits
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Developing a new car with AUTOSAR
16
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Functions of the car
Brake control BC
Throttle Control TC
Engine Control EH
Door locking DL
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Developing a new car with AUTOSAR
Press
here
17
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
DL
Software
Components
(SWCs)
EH
Software
Components
(SWCs)
BC
Software
Components
(SWCs)
Functions of the car
Brake control BC
Throttle Control TC
Engine Control EH
Door locking DL
TC Software
Components
(SWCs)
Mapping of SWC to ECU
extract is created for
ECU Extract Files An
each ECU...
https://www.facebook.com/groups/embedded.system.KS/
Follow us
With AUTOSAR
Press
here
18
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
New Terms in AUTOSAR
19
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
20
START With AUTOSAR
EH
Software
Components
(SWCs)
Step 1: Input Descriptions
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
BC
Software
Components
(SWCs)
TC Software
Components
(SWCs)
Step 2: System Configuration
Step 3: ECU-configuration
Mapping of SWC to ECU
Step 4: Generation of Software
Executables
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
21
START With AUTOSAR
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Step 1: Input Descriptions
Step 2: System Configuration
Step 3: ECU-configuration
Step 4: Generation of Software
Executables
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Step 1: Input Descriptions
22
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 The input description step contains three descriptions:
Step 1: Input Descriptions
Step 2: System Configuration
Step 3: ECU-configuration
Step 4: Generation of Software
Executables
 Software Components: This description is
independent
of the actual implementation of the software component.
Among the necessary data to be specified are the
interfaces and the hardware requirements.
 System: The system topology (interconnections between
ECUs) need to be specified together with the available
data busses, used protocols, function clustering and
communication matrix and attributes (e.g. data rates,
timing/latency, …).
 Hardware: The available hardware (processors, sensors,
actuators, …) needs to be specified together with the
signal processing methods and programming capabilities
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Step 2: System Configuration
23
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 This step distributes the software component
Step 1: Input Descriptions
descriptions to the different ECU. This is an iterative
process where ECU-resources and system-constraints
are taken into account.
Step 2: System Configuration
Step 3: ECU-configuration
Step 4: Generation of Software
Executables
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Templates and Description Files
24
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
System Constraint
Description
Press
here
25
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 The AUTOSAR “System Constraint
Description” contains the following
information:
 Information of network topology
 Limitations (“Constraints”)
 Protocol
 Given communication matrix (PDUs, signals, …)
 Baud rate, timing
 Structure and format are described by the
“System Template”.
SYSYEM
Description
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
ECU Resource Description
26
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 The AUTOSAR “ECU Resource Description” contains the following
Information.
 Description of the hardware being used
 Sensors, actuators
 Memory
 Processor
 Communications periphery
 Pin assignments
 The structure and format are described by the “ECU Resource
Template”.
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Software Component Description
27
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 The AUTOSAR “Software Component
Description” contains the followinginformation
 Ports and Interfaces (sender/receiver,
client/server)
 Runnable Entities with trigger events, port access,
etc
 Resource needs of the component (memory, CPU
time, etc.)
 Structure and format are described by the
“Software Component
 Template”.
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Step 1 & 2
28
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Step 1: Input
Descriptions
Step 2: System
Configuration
Step 3: ECU-configuration
Step 4: Generation of Software
Executables
https://www.facebook.com/groups/embedded.system.KS/
Follow us
AUTOSAR Workflow with OEM and
TIER1
 OEM creates an ECU-
specific extract of the
vehicle system design
 TIER1 configures
EH
Software
Components
(SWCs)
Press
here
29
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
BC
Software
Components
(SWCs)
TC Software
Components
(SWCs)
AUTOSAR ECU based on
this extract
Mapping of SWC to ECU
An extract is created for
each ECU...
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Step 3: ECU-configuration
 In this step,
Step 1: Input
Descriptions
Step 2: System
Configuration
30
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
the Basic Software and
the Run Time Environment of each
electronic control unit (ECU) is configured.
 This is based on the dedication of the
application software components to each ECU.
Step 3: ECUconfiguration
Step 4: Generation of
Software Executables
BASIC Software Layer
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
ECU Configuration
31
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Step 1: Input
Descriptions
Step 2: System
Configuration
Step 3: ECUconfiguration
Step 4: Generation of
Software Executables
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
ECU Configuration
32
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
What is a parameter?
33
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Step 1: Input
Descriptions
Step 2: System
Configuration
Step 3: ECUconfiguration
Step 4: Generation of
Software Executables
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Containers and Parameters
34
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Step 1: Input
Descriptions
Step 2: System
Configuration
Step 3: ECUconfiguration
Step 4: Generation of
Software Executables
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Step 4: Generation of Software
Executables
Step 1: Input
Descriptions
Step 2: System
Configuration
Press
here
35
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 Based on the configuration of the previous
step, the software executables are generated
by the Generator.
 For this step, it’s necessary to specify the
implementation of each software component.
Step 3: ECUconfiguration
Step 4: Generation of
Software Executables
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Component development process
36
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Executable ECU
37
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Step 1: Input
Descriptions
Step 2: System
Configuration
Step 3: ECUconfiguration
Step 4: Generation of
Software Executables
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Step 1: Input Descriptions
4 Steps
Step 2: System Configuration
DL
Step 3: ECU-configuration
Software
Components
(SWCs)
EH
Software
Components
(SWCs)
BC
Software
Components
(SWCs)
Step 4: Generation of Software
Executables
Press
here
38
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Functions of the car
Brake control BC
Throttle Control TC
Engine Control EH
Door locking DL
TC Software
Components
(SWCs)
Mapping of SWC to ECU
extract is created for
ECU Extract Files An
each ECU...
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
39
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
AUTOSAR architecture
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
AUTOSAR architecture
 The
40
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
AUTOSAR architecture is
using a layered approach consisting of a
total of three software layers running on
top of a microcontroller.
 These three layers are called, starting at
the bottom,
BSW, RTE
and finally
Application Layer (AL).
introduction to each layer will be
presented below.
An
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Basic Software
41
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 the BSW layer is a layer in itself,
internally it consists of four sub-layers
 Microcontroller Abstraction Layer
 ECU Abstraction Layer
 Complex Drivers Layer
 Services Layer
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Microcontroller Abstraction Layer
42
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 The Microcontroller Abstraction Layer
(MCAL) is located at the very bottom of the
BSW layer.
 MCAL uses its internal software drivers to
directly communicate with the
microcontroller.
 These drivers include: memory,
communication and I/O drivers. The task of
the layer is to make layers above it
microcontroller independent.
 When the MCAL is implemented it is
microcontroller dependent but provides a
standardized and microcontroller
independent interface upwards in the stack
thus fulfilling its purpose
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
ECU Abstraction Layer
43
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 Located on top of the MCAL is the ECU Abstraction Layer
(ECUAL).
 Internally it has drivers for external devices and uses the
interface defined by the MCAL to access drivers at the lowest
level.

Layers higher up in the stack can use the provided API to gain
access to devices and peripherals without having to know
anything about the hardware, for example, whether or not a
device is located internally or externally, what the
microcontroller interface looks like etc.
 The ECUAL aims to make upper layers independent of how the
ECU is structured.
 implementation the ECUAL is microcontroller independent but
dependent on the ECU hardware;
 Upper layers interfacing the ECUAL are no longer dependent on
either of them (microcontroller and ECU Hardware).
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Complex Drivers Layer
 Typically this layer is used to integrate special
44
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
purpose
functionality and functionality currently being migrated from
a previous system
 Since this is the layer between the microcontroller and the
RTE, drivers for devices with strict timing constraints can
benefit from being placed in the CDL as the multi-layered
parts of the BSW layer is likely to introduce overhead due to
additional layers and standardization.
 Drivers for devices not compliant with AUTOSAR can also be
put here
 “How does the standard support migration from existing
solutions?”
 The introduction and creation of Complex Drivers in the
AUTOSAR standard can be used to migrate existing solutions
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
45
Services Layer
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 The top sub-layer in the BSW layer is called
Services Layer (SL). Along with operating
system functionality the SL provides a collection
of managers such as: memory-, network-,
and ECU state management. This is also
where diagnostic services reside.
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
46
Runtime Environment
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 The RTE is the layer between the application layer
and the BSW layer. It provides the application
software with services from the service layer.

either
All communication between SWCs,
on
the same ECU or different ones, or services are
done via the RTE.
 The main task of the RTE is to make the layer
above and below it completely independent of each
other.

In other words, SWCs running on an ECU have no
idea what the ECU looks like hence a SWC will be
able to run on different looking ECUs without any
modifications
 Logically the RTE can be seen as two sub-parts
realizing different SWC functionality:
 Communication
 Scheduling
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Virtual Function Bus
47
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 It provides generic communication services
that can be consumed by any existing
AUTOSAR software component.
 Although any of these services are virtual,
they will then in a later development phase be
mapped to actual implemented methods, that
are specific for the underlying hardware
infrastructure.
 In virtual speciation of the communication
topology and interaction between components
which is done via the virtual function bus,
 the runtime environment provides an
implementation for these artifacts.
actual
It could also be said that the runtime environment
provides an actual representation of the virtual
concepts of the VFB for one specific ECU.
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Example VFB to RTE mapping where the virtual communication topology is
mapped to three different ECU's
 Each ECU has its
48
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
own customized RTE
implementation which is generated
during
.
the ECU Configuration process
The Depending on the location of each
component, the formerly virtual interaction
can then be mapped to real interaction
implementation.
 components that are mapped onto one
ECU will communicate through Intra
ECU-Mechanisms, like function calls
while Inter-ECU communication will be
realized using, e.g. a communication bus
infrastructure.
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Example for the body of a runnables source code
(Pseudo-Code)
49
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Listing of AUTOSAR RTE API method prefixes for the
various send and receive communication modes
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Usage of the RTE API within a sender and receivercommunication channel
50
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
RTE Send API implementation for Intra- and Inter-ECU
communication
51
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
RTE Receive API implementation for Intra- and
Inter-ECU communication
52
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Mapping of Runnable Entities and Basic Software Schedulable
Entities to tasks (informative)
53
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 RunnableEntity:
 A RunnableEntity represents the smallest code-fragment that is provided
by an AtomicSwComponentType and are executed under control of the
RTE.
Concepts of instantiation
Single instantiation
Multiple instantiation
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Mapping of Runnable Entities and Basic Software Schedulable
Entities to tasks (informative)
54
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
RTE-Configurator uses parts
of the ECU Configuration of
 The
other BSW Modules, e.g. the
mapping
of RunnableEntitys to
OsTasks. In this configuration
process the RTE-Configurator
expects OS objects (e.g. Tasks,
Events, Alarms...) which are used in
the generated RTE and Basic
Software Scheduler.
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Mapping of Category 1 RunnableEntitys to Basic Tasks
55
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Mapping of Category 1
RunnableEntitys to Extended Tasks
Press
here
56
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Inter task activation and mapping of runnable to
individual task for monitoring purpose
57
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
RTE Implementation Example 1:
Without OsEvent



RunnableEntity RE1 is activated by TimingEvent 100ms T1.

RunnableEntity RE2 is activated by TimingEvent 100ms T2.
#Be_professional_in
embedded_system
RunnableEntity RE3 is activated by TimingEvent 100ms T3.
Execution order of the RunnableEntitys shall be R1, R2 then R3. RE2 shall be monitored.
Possible RTE configuration:

RE1/T1 is mapped to OsTask TaskA with RtePositionInTask equal to 1.

RE2/T2 is mapped to OsTask TaskB but virtually mapped to TaskA with RtePositionInTask equal to 2.

RE3/T3 is mapped to OsTask TaskA with RtePositionInTask equal to 3.
OsAlarm with 100ms period. This OsAlarm is

Possible RTE implementation: RTE starts cyclic
configured to activate TaskA.

Non preemptive scheduling is configured for Task A.

58
#LEARN_IN DEPTH
Description of the example:


Press
here
TaskB priority = TaskA priority + 1
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
RTE Implementation Example 2:
With OsEvent
Press
here
59
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 Description of the example:

RunnableEntity RE1 is activated by DataReceivedEvent DR1.

RunnableEntity RE2 is activated by DataReceivedEvent DR2.

RunnableEntity RE3 is activated by DataReceivedEvent DR3. Evaluation order of the
RTEEvents shall be DR1, DR2 then DR3. All the runnables shall be monitored.
 Possible RTE configuration:

RE1 is mapped to OsTask TaskB but virtually mapped to TaskA with a reference to OsEvent
EvtA and RtePositionInTask equal to 1.

RE2 is mapped to OsTask TaskC but virtually mapped to TaskA with a reference to OsEvent
EvtB and RtePositionInTask equal to 2.

RE3 is mapped to OsTask TaskD but virtually mapped to TaskA with a reference to OsEvent
EvtC and RtePositionInTask equal to 3.
 Possible RTE implementation:

RTE set EvtA, EvtB and EvtC according to the callbacks from COM. Full preemptive
scheduling is configured for Task A.

TaskB priority = TaskC priority = TaskD priority = TaskA priority + 1
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
RTE APIs on RTE Specifications
https://www.autosar.org
Press
here
60
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Application Layer
61
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 SWCs are such a key part of this layer and
AUTOSAR and have as a result been awarded a
dedicated section.
 Creating SWCs and the behavior in the AL can be
done freely according to what a particular vendor
wants
 One restriction though is that all communication with
other components, whether it is intra- or intercommunication, has to be achieved in a standardized
way by using the RTE.
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
62
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
The AUTOSAR Adaptive Platform
for Connected and Autonomous
Vehicles
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Adaptive AUTOSAR Use Cases
63
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Definition of Adaptive AUTOSAR
64
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Classic Platform vs. Adaptive
Platform
Press
here
65
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Another platform for different
applications
Press
here
66
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
67
Source: www.autosar.org
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Classic Platform vs. Adaptive
Platform
Source: www.autosar.org
Press
here
68
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Architecture – machine level
Source: www.autosar.org
69
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
70
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Communication
software
components and
architecture
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Automative buses
71
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Example using CAN
Source: www.autosar.org
72
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
73
What is Next ?
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 We will create a MCAL “(Microcontroller Abstraction Layer)” Drivers
For Atmega32 according to Autosar Specifications
MCAL (Microcontroller
Abstraction Layer)
MCAL is a software module that
directly accesses on-chip MCU
peripheral modules and external
devices that are mapped to memory,
and makes the upper software layer
independent of the MCU.
Details of the MCAL software module
are shown below.
https://www.facebook.com/groups/embedded.system.KS/
Follow us
How to write
DIO AUTOSAR
MCAL for
atmega32
Press
here
74
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
main.c
MCAL LAYER
DIO
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
How to write DIO MCAL for
atmega32  Read First
75
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
AUTOSAR_SWS_DIODriver.pdf from
Autosar.org
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
76
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
DIO Driver
Structure and
Integration
Source: www.autosar.org https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Dependencies to other modules
77
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
File structure
78
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
API service ID’s
79
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Error classification
Source: www.autosar.org
80
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
81
Type definitions
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Version Number
82
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Function Prototypes
Press
here
83
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Source: www.autosar.org
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Dio_Cfg.h
Press
here
84
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
Assuming the Pins Mapped as :
A0
A7
B8
B15
c16
Atmega32
c23
D24
D31
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Dio_WriteChannel()
Dio_ReadChannel()
85
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Dio_WriteChannel()
Dio_ReadChannel()
86
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Dio_WriteChannel()
Dio_ReadChannel()
87
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Dio_WriteChannel()
Dio_ReadChannel()
88
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Dio_WriteChannel()
Dio_ReadChannel()
89
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Dio_WriteChannel()
Dio_ReadChannel()
90
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
91
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
92
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
Prepare your self for the next
session
93
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
AUTOSAR OS
(
)
And
(AUTOSAR APPlication Layer)
#LEARN_IN_DEPTH 
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
94
References
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 https://www.autosar.org
 Embedded Microcomputer Systems Real Time Interfacing Third
Edition Jonathan W. Valvano University of Texas at Austin.
 MicroC/OS-II the real-time kernel second edition jean j.labrosse.
 RTOS Concepts http://www.embeddedcraft.org.
 OSEK/VDX Operating System Specification 2.2.3
 AUTOSAR Layered Software Architecture
 The Trampoline Handbook release 2.0
 Trampoline (OSEK/VDX OS) Test Implementation -Version 1.0,
Florent PAVIN ; Jean-Luc BECHENNEC
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
95
References
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 Trampoline:an open platform for (small) embedded systems based on
OSEK/VDX and AUTOSAR
http://trampoline.rts-software.org/
Jean-Luc Béchennec1;2, Sébastien Faucou1;3
1IRCCyN (Institute of Research in Communications and Cybernetics of Nantes)
2CNRS (National Center for Scientific Research) / 3University of Nantes
10th Libre Software Meeting
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
96
References
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 Real Time Systems (RETSY)
Jean-Luc Béchennec - Jean-Luc.Bechennec@irccyn.ec-nantes.fr
Sébastien Faucou - Sebastien.Faucou@univ-nantes.fr
jeudi 12 novembre 15
 AUTOSAR Specification of Operating System V5.0.0 R4.0 Rev 3
 OSEK - Basics http://taisnotes.blogspot.com.eg/2016/07/osek-basic-
task-vs-extended-task.html

OSEK OS Session Speaker Deepak V.
M.S Ramaiah School of Advanced Studies - Bangalore 1
 Introducción a OSEK-OS - El Sistema Operativo del CIAA-Firmware
Programación de Sistemas Embebidos
MSc. Ing. Mariano Cerdeiro
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
97
References
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 Introduction to AUTOSAR, Stephen Waldron, Vector webinar
Wednesday 7th May 2014
https://vector.com/portal/medien/cmc/events/Webinars/2014/Vector_
Webinar_AUTOSAR_Introduction_20140507_EN.pdf
 Introduction to AUTOSAR, Stephen Waldron, Vector webinar
Tuesday 5th May 2015
https://vector.com/portal/medien/cmc/events/Webinars/2015/Vector_
Webinar_AUTOSAR_Introduction_20150505_EN.pdf
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
98
References
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 Applying AUTOSAR in Practice Available Development Tools and
Migration Paths Master Thesis, Computer Science Authors: Jesper
Melin
http://www.idt.mdh.se/utbildning/exjobb/files/TR1171.pdf
Freescale AUTOSAR Software Overview.pdf
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
99
References
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 AUTOSAR Method, Vector Webinar 2013-04-17
https://vector.com/portal/medien/cmc/events/Webinars/2013/Vector_Web
inar_AUTOSAR_Method_20130417.pdf
 AUTOSAR Configuration Process - How to handle 1000s of parameters
Vector Webinar 2013-04-19
https://vector.com/portal/medien/cmc/events/Webinars/2013/Vector_Web
inar_AUTOSAR_Configuration_Process_20130419_EN.pdf
 AUTOSAR Runtime Environment and Virtual Function Bus, Nico Naumann
https://hpi.de/fileadmin/user_upload/fachgebiete/giese/Ausarbeitungen_A
UTOSAR0809/NicoNaumann_RTE_VFB.pdf
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
100
References
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 The AUTOSAR Adaptive Platform for Connected and Autonomous
Vehicles, Simon Fürst, AUTOSAR Steering Committee 8th Vector
Congress 29-Nov-2016, Alte Stuttgarter Reithalle, Stuttgart,
Germany
https://vector.com/congress/files/presentations/VeCo16_06_29Nov_Re
ithalle_Fuerst_BMW.pdf
 A Review of Embedded Automotive Protocols, Nicolas Navet1,
Françoise Simonot-Lion2 April 14, 2008
https://www.realtimeatwork.com/wpcontent/uploads/chapter4_CRC_2008.pdf
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
101
References
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 AUTOSAR Adaptive Platform
https://vector.com/conference_india/files/presentations/Day1/3_AUTO
SAR%20Adaptive%20Platform.pdf
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
102
References
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
 http://www.autosar.org/about/technical-overview/ecu-software







architecture/autosar-basic-software/
http://www.autosar.org/standards/classic-platform/
https://automotivetechis.files.wordpress.com/2012/05/communicationsta
ck_gosda.pdf
https://automotivetechis.files.wordpress.com/2012/05/autosar_ppt.pdf
https://automotivetechis.wordpress.com/autosar-concepts/
https://automotivetechis.files.wordpress.com/2012/05/autosar_exp_laye
redsoftwarearchitecture.pdf
http://www.slideshare.net/FarzadSadeghi1/autosar-software-component
https://www.renesas.com/enus/solutions/automotive/technology/autosar/autosar-mcal.html
https://github.com/parai/OpenSAR/blob/master/include/Std_Types.h
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
103
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Follow us
Press
here
104
#LEARN_IN DEPTH
#Be_professional_in
embedded_system
https://www.facebook.com/groups/embedded.system.KS/
Download