J1939 Framework Save

Framework to work with J1939 Frames used in CAN bus in bus, car and trucks industries

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J1939-Framework

Framework to work with J1939 protocol.

J1939 protocol is a standard used in different systems compliant with CAN 2.0B specification.

The framework has been developed in C++ in a Linux distribution and compiled using the GNU toolchain. No dependencies are required for the compilation of any of the projects except from SocketCan compiled in the Linux Kernel.

What can you do with J1939-Framework

  • Save can frames from the Can Bus into recordings in TRC format with BinUtils/TRCDumper.
  • Play can frames from recordings in TRC format into the Can Bus with BinUtils/TRCPlayer.
  • Convert TRC files into pcap files readable by wireshark with BinUtils/TRCToCap.
  • Dissect pcap files with wireshark and the J1939 plugin dissector (wireshark/dissector).
  • Sniff frames from the Can Bus compliant with J1939 protocol with BinUtils/j1939Sniffer.
  • Decode raw J1939 data to human readable data with BinUtils/j1939Decoder.
  • Craft your own J1939 frames and send them to the Can Bus with BinUtils/j1939Sender. The functionality can be extended with the help of bash scripts located in Scripts (some examples are listed).
  • Visualize what is going on in the Can Bus with GUI_WEB. You will be able to craft, send and visualize the frames that are flowing in the Bus as well as visualizing graphics of their content (SPNs).
  • Discover J1939 devices with BinUtils/j1939AddressMapper.
  • Simulation of the Address Claim Process with BinUtils/j1939AddrClaim.

And of course, develop!!:

  • In CAN/ folder we can find a library in C++ (libCAN.so) with methods to generate and sniff can frames with support for PeakCan and SocketCan.
  • In J1939/ folder we can find a library in C++ (libJ1939.so) to easily manipulate J1939 frames and work with the J1939 protocol. Some features are: Support of BAM protocol. A factory class in charge of generating the J1939 frames. A database loaded by the factory located in Database/frames.json with a list of the most used Application Layer frames (including the FMS protocol). Coding/Decoding DM1 (Diagnosis), FMS1 (TTS), Request and Address Claim frames. Coding/Decoding of SPNs (String, status and numeric).

Installing and compiling

Installation:

Ubuntu 18.10 or higher


sudo apt-get install libgtest-dev protobuf-compiler libprotobuf-dev libncurses-dev libwebsockets cmake
cd /usr/src/gtest
sudo env "PATH=$PATH" cmake CMakeLists.txt
sudo make
sudo cp *.a /usr/lib
git clone https://github.com/open-source-parsers/jsoncpp.git

 
cd jsoncpp
git checkout 863aa36165acfdbaf22447f4934f5adc327692a0
cmake -DCMAKE_POSITION_INDEPENDENT_CODE=ON 
sudo make install
cd ~
git clone https://github.com/famez/J1939-Framework.git
cd J1939-Framework
cmake . 
cmake --build .
sudo make install

Usage with SocketCan:

To make SocketCan available in your system, you should execute the following commands:

sudo apt-get install can-utils

To enable the drivers if they not enabled by default:

sudo modprobe can
sudo modprobe vcan

To generate a virtual interface for test purposes.

sudo ip link add name vcan0 type vcan

To test over vcan0.

./Scripts/gear_level.sh vcan0 | j1939Sender --silent --file Scripts/define_frames.j1939
candump vcan0

TRCPlayer

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Wireshark dissector

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J1939GUI

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Open Source Agenda is not affiliated with "J1939 Framework" Project. README Source: famez/J1939-Framework
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