5.1.3 Source Code Installation
This section describes how to install TogetheROS.Bot from source code on both RDK and X86 platforms.
RDK Platform
Prerequisites:
- Your development machine can access the D-Robotics organization normally.
- Docker is already installed on your development machine.
Building tros.b
1 Using Docker Image
All operations in this section are performed on the development machine.
- Foxy
- Humble
## Create directory
cd /mnt/data/kairui.wang/test
mkdir -p cc_ws/tros_ws/src
## Download Docker image for cross-compilation
wget http://archive.d-robotics.cc/TogetheROS/cross_compile_docker/pc_tros_v1.0.5.tar.gz
## Load Docker image
sudo docker load --input pc_tros_v1.0.5.tar.gz
## Check the image ID corresponding to pc_tros
sudo docker images
## Start Docker container with mounted directories
sudo docker run -it --entrypoint="/bin/bash" -v LOCAL_PC_DIR:DOCKER_DIR IMAGE_ID
# Example: sudo docker run -it --entrypoint="/bin/bash" -v /mnt/data/kairui.wang/test:/mnt/test 9c2ca340973e
## Create directory
cd /mnt/data/kairui.wang/test
mkdir -p cc_ws/tros_ws/src
## Download Docker image for cross-compilation
wget http://archive.d-robotics.cc/TogetheROS/cross_compile_docker/pc_tros_ubuntu22.04_v1.0.0.tar.gz
## Load Docker image
sudo docker load --input pc_tros_ubuntu22.04_v1.0.0.tar.gz
## Check the image ID corresponding to pc_tros
sudo docker images
## Start Docker container with mounted directories
sudo docker run -it --entrypoint="/bin/bash" -v LOCAL_PC_DIR:DOCKER_DIR IMAGE_ID
# Example: sudo docker run -it --entrypoint="/bin/bash" -v /mnt/data/kairui.wang/test:/mnt/test 4cbdb9d61e19
2 Obtaining tros.b Source Code
All operations in this section are performed inside the Docker container on the development machine.
Here we use /mnt/test inside the Docker container as an example.
- Foxy
- Humble
cd /mnt/test/cc_ws/tros_ws
## Clone configuration files
git clone https://github.com/D-Robotics/robot_dev_config.git -b foxy
## Navigate into robot_dev_config and run 'git tag --list' to view available release versions
## Use 'git reset --hard [TAG]' to specify a particular release version. See the section "Building a Specific Version of tros.b" on this page for details.
## Pull source code
vcs-import src < ./robot_dev_config/ros2_release.repos
cd /mnt/test/cc_ws/tros_ws
## Clone configuration files
git clone https://github.com/D-Robotics/robot_dev_config.git -b develop
## Navigate into robot_dev_config and run 'git tag --list' to view available release versions
## Use 'git reset --hard [TAG]' to specify a particular release version. See the section "Building a Specific Version of tros.b" on this page for details.
## Pull source code
vcs-import src < ./robot_dev_config/ros2_release.repos
The overall project directory structure is as follows:
├── cc_ws
│ ├── sysroot_docker
│ │ ├── etc
│ │ ├── lib -> usr/lib
│ │ ├── opt
│ │ └── usr
│ └── tros_ws
│ ├── robot_dev_config
│ └── src
- The
tros_ws/robot_dev_configdirectory contains configuration files and scripts required for code fetching, building, and packaging. - The
tros_ws/srcdirectory stores the fetched source code. - The
sysroot_dockerdirectory contains headers and libraries required for cross-compilation, mirroring the root (/) directory of the RDK. For example, the media library resides atsysroot_docker/usr/lib/hbmedia/in the Docker environment, corresponding to/usr/lib/hbmedia/on the RDK.
During compilation, the build script robot_dev_config/aarch64_toolchainfile.cmake uses the CMAKE_SYSROOT macro to specify the path to sysroot_docker.
For the tag (version) of robot_dev_config, please refer to the Release Notes section.
3 Cross-compilation
All operations in this section are performed inside the Docker container on the development machine.
## Build tros.b for X3 using build.sh
bash ./robot_dev_config/build.sh -p X3
## Build tros.b for RDK Ultra using build.sh
bash ./robot_dev_config/build.sh -p Rdkultra
## Build tros.b for X5 using build.sh
bash ./robot_dev_config/build.sh -p X5
## Build tros.b for S100 using build.sh
bash ./robot_dev_config/build.sh -p S100
Upon successful compilation, you will see a message indicating that N packages have been built successfully.
If you perform a minimal build using minimal_build.sh, you can further reduce the deployment package size by running ./minimal_deploy.sh -d "install_path".
Installing tros.b
Copy the generated install directory to the RDK and rename it to tros. Here, we place the deployment package under /opt/tros to maintain consistency with the directory used in deb package installations.
Building a Specific Version of tros.b
By default, step 2 (Obtaining tros.b Source Code) in the Building tros.b section fetches the latest version of tros.b source code. If you need to obtain source code for a specific released version, modify this step as follows:
## Clone configuration files
git clone https://github.com/D-Robotics/robot_dev_config.git
cd robot_dev_config
## List available release versions
git tag --list
## Switch to a specific version; here we use tros.b 2.0.0 as an example
git reset --hard tros_2.0.0
cd ..
## Pull source code
vcs-import src < ./robot_dev_config/ros2_release.repos
For the tag (version) of robot_dev_config, please refer to the Release Notes section.
X86 Platform
System Requirements
You must use a 64-bit Ubuntu 20.04 system. Alternatively, you may use the RDK cross-compilation Docker image, but both compilation and execution must be performed entirely within the Docker container.
System Configuration
Setting Locale
Ensure your locale supports UTF-8:
locale # check for UTF-8
sudo apt update && sudo apt install locales
sudo locale-gen en_US en_US.UTF-8
sudo update-locale LC_ALL=en_US.UTF-8 LANG=en_US.UTF-8
export LANG=en_US.UTF-8
locale # verify settings
Adding APT Repository
# First, ensure Ubuntu Universe repository is enabled
sudo apt install software-properties-common
sudo add-apt-repository universe
sudo apt update && sudo apt install curl
# Add the official ROS2 repository
sudo curl -sSL https://raw.githubusercontent.com/ros/rosdistro/master/ros.key -o /usr/share/keyrings/ros-archive-keyring.gpg
echo "deb [arch=$(dpkg --print-architecture) signed-by=/usr/share/keyrings/ros-archive-keyring.gpg] http://packages.ros.org/ros2/ubuntu $(. /etc/os-release && echo $UBUNTU_CODENAME) main" | sudo tee /etc/apt/sources.list.d/ros2.list > /dev/null
# Add the tros.b official repository
sudo curl -sSL http://archive.d-robotics.cc/keys/sunrise.gpg -o /usr/share/keyrings/sunrise.gpg
echo "deb [arch=amd64 signed-by=/usr/share/keyrings/sunrise.gpg] http://archive.d-robotics.cc/ubuntu-rdk-sim focal main" | sudo tee /etc/apt/sources.list.d/sunrise.list > /dev/null
Install ROS Tool Packages
sudo apt update && sudo apt install -y \
libbullet-dev \
python3-pip \
python3-pytest-cov \
ros-dev-tools
Obtain tros.b Source Code
git config --global credential.helper store
mkdir -p ~/cc_ws/tros_ws/src
cd ~/cc_ws/tros_ws/
git clone https://github.com/D-Robotics/robot_dev_config.git -b develop
vcs-import src < ./robot_dev_config/ros2_release.repos
Install Dependencies
Install packages required for building from source:
# install some pip packages needed for testing
python3 -m pip install -U \
argcomplete \
flake8-blind-except \
flake8-builtins \
flake8-class-newline \
flake8-comprehensions \
flake8-deprecated \
flake8-docstrings \
flake8-import-order \
flake8-quotes \
pytest-repeat \
pytest-rerunfailures \
pytest
# install Fast-RTPS dependencies
sudo apt install --no-install-recommends -y \
libasio-dev \
libtinyxml2-dev
# install Cyclone DDS dependencies
sudo apt install --no-install-recommends -y \
libcunit1-dev
# install tros.b basic models
sudo apt install --no-install-recommends -y \
hobot-models-basic
# install other packages dependencies
sudo apt install --no-install-recommends -y \
qt5-qmake \
libpyside2-dev \
libshiboken2-dev \
pyqt5-dev \
python3-pyqt5 \
python3-pyqt5.qtsvg \
python3-pyside2.qtsvg \
python3-sip-dev \
shiboken2 \
libyaml-dev \
qtbase5-dev \
libzstd-dev \
libeigen3-dev \
libxml2-utils \
libtinyxml-dev \
libssl-dev \
python3-numpy \
libconsole-bridge-dev \
pydocstyle \
libqt5core5a \
libqt5gui5 \
libgtest-dev \
cppcheck \
tango-icon-theme \
libqt5opengl5 \
libqt5widgets5 \
python3-lark \
libspdlog-dev \
google-mock \
clang-format \
python3-flake8 \
libbenchmark-dev \
python3-pygraphviz \
python3-pydot \
python3-psutil \
libfreetype6-dev \
libx11-dev \
libxaw7-dev \
libxrandr-dev \
libgl1-mesa-dev \
libglu1-mesa-dev \
python3-pytest-mock \
python3-mypy \
default-jdk \
libcunit1-dev \
libopencv-dev \
python3-ifcfg \
python3-matplotlib \
graphviz \
uncrustify \
python3-lxml \
libcppunit-dev \
libcurl4-openssl-dev \
python3-mock \
python3-nose \
libsqlite3-dev \
pyflakes3 \
clang-tidy \
python3-lttng \
liblog4cxx-dev \
python3-babeltrace \
python3-pycodestyle \
libassimp-dev \
libboost-dev \
libboost-python-dev \
python3-opencv \
libboost-python1.71.0
Build
# Build using build.sh
bash ./robot_dev_config/build.sh -p X86
Upon successful compilation, a message indicating that a total of N packages have been built successfully will be displayed.
Install tros.b
Copy the generated install directory to /opt and rename it to tros, aligning with the directory structure used by deb package installations.
Common Issues
Q1: How can I verify whether VCS successfully fetched the code?
A1: As shown in the figure below, during the vcs import process, a printed dot (.) indicates successful retrieval of a repository, whereas an E indicates failure. The specific failed repository can be identified from the log output after execution. In such cases, you may either delete the contents under the src directory and re-run vcs import, or manually clone the failed repository.

Q2: What if I cannot pull code from GitHub due to network restrictions?
A2: You can directly download the required version of the source code from the TogetheROS file server. For example, the file tros_2.0.0_source_code.tar.gz corresponds to tros.b version 2.0.0.