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RDK S100(P) Board📖
0. RDK S100(P) Developer Kit
  • 1. RDK S100(P) Official Tutorial
1. Introduction to RDK S100(P) Development Board
  • 1.1 Introduction to the RDK S100(P) Development Board
  • 1.2 Install Operating System
  • 1.3 Interface Descriptions
  • 1.4 Accessory installation
  • 1.5 Camera Expansion Board
  • 1.6 MCU Port Expansion Board
  • 1.7 Precautions for using 15.6-inch screens
2. Basic Settings Course
  • 2.1 Network Configuration
  • 2.2 Remote Login
  • 2.3 System Update
  • 2.4 Boot Auto-Start Configuration
  • 2.5 RDK Exclusive Command Usage
  • 2.6 Linux Command Usage
  • 2.7 Example of GPIO read and write operations
  • 2.8 Using USB Camera
  • 2.9 Using MIPI Camera
  • 2.10 SSD mounting
  • 2.11 Binocular camera depth algorithm
3. TogetheROS.Bot Vision Applications
  • 1. About TogetheROS. Bot
  • 2. System Installation
  • 3. Object Detection(YOLO)
  • 4. Image Classification(mobilenetv2)
  • 5. Image Segmentation(mobilenet_unet)
  • 6. Perception Algorithm(BEV)
  • 7. Human Detection and Tracking (Ultralytics YOLO Pose)
4.Offline AI model course
Offline large model (Text Interaction)
  • 1. AI large model environment deployment
  • 2. Install large model dialogue platform
  • 3. Meta AI Llama 3.2 model
  • 4. Alibaba Cloud Qwen3 model
  • 5. Microsoft Phi-4 mini model
  • 6. DeepSeek - DeepSeek-R1 model
  • 7. Alibaba Cloud Qwen2.5vl Visual Multimodal Large Model
  • 8. Google Gemma3 Visual Multimodal Large Model
  • 9. Lava Visual Multimodal Large Model
  • 10. MiniCPM-V Visual Multimodal Large Model
  • 11. Multimodal visual understand application
  • 12. Multimodal text to image application
  • 13. Multimodal visual localization application
  • 14. Multimodal table scanning application
  • 15. Multimodal Autonomous Agent Applications
Offline large model (Voice Interaction)
  • 0. Voice Interaction Hardware Connection (Must Read)
  • 1. Offline speech-to-text (ASR)
  • 2. Offline Text-to-Speech (TTS)
  • 3.AI large model voice interaction
  • 4. Multimodal visual understanding voice interaction
  • 5. Multimodal Text-to-Image application
  • 6. Multimodal video analytics application
  • 7. Multimodal visual localization application
  • 8. Multimodal table scanning application
  • 9. Multimodal autonomous agent application
  • 10. AI Large Model Offline Voice Assistant
5.Online AI model course
Online large model (Text Interaction)
  • 1.OpenRouter large model API aggregation platform
  • 2.Multimodal visual understand application
  • 3.Multimodal visual localization application
  • 4.Multimodal table scanning application
  • 5.Multimodal autonomous agent application
Online large model (Voice Interaction)
  • 0.Voice interaction hardware connection (ReadMe)
  • 1.Online speech to text (ASR)
  • 2.Online text to speech (TTS)
  • 3.AI large model voice interaction
  • 4.Multimodal visual understand speech interaction
  • 5.Multimodal visual localization application
  • 6.Multimodal table scanning application
  • 7.Multimodal autonomous proxy application
  • 8.AI large model online voice assistant
6.YOLO26 tutorials
  • 01.YOLO26 environment
  • 02.CLI use
  • 03.Object detection
  • 04.Instance segmentation
  • 05.Pose estimation
  • 06.Image classification
  • 07.Oriented object detection
  • 08.Model conversion
  • 09.Dataset annotation
  • 10.Model training - conversion
  • 11.Model prediction
7.OpenClaw Advanced Development
  • 1.OpenClaw Deployment
  • 2.OpenClaw WhatsApp Plugin Application
  • 3.OpenClaw WebChat Interaction
  • 4.OpenClaw TUI Interaction
  • 5.OpenClaw Tools Introduction
  • 6.OpenClawGate Gateway User Manual
  • 7.OpenClaw Features Overview
  • 8.OpenClawClawHub Introduction (Skill Installation)
  • 9.OpenClaw Application - File Management
  • 10.OpenClaw Application - Camera
  • 11.OpenClaw Application - Browser Control
  • 12.OpenClaw Application - Script Execution
  • 13.OpenClaw Application - AI Programming (Peripheral & GPIO Control)
  • 14.OpenClaw Application - Dedicated AI Assistant
  • 15.OpenClaw Web Search Capability Configuration
8.ROS2 basic course
  • 1.Introduction to ROS2
  • 2.ROS2 install Humble
  • 3.ROS2 development environment
  • 4.ROS2 workspace
  • 5.ROS2 function package
  • 6.ROS2 node
  • 7.ROS2 topic communication
  • 8.ROS2 service communication
  • 9.ROS2 action communication
  • 10.ROS2 custom interface message
  • 11.ROS2 parameter service case
  • 12.ROS2 meta-function package
  • 13.ROS2 distributed communication
  • 14.ROS2 DDS
  • 15.ROS2 time related API
  • 16.ROS2 common command tools
  • 17.ROS2 rviz2 use
  • 18.ROS2 rqt toolbox
  • 19.ROS2 Launch startup file configuration
  • 20.ROS2 recording and playback tool
  • 21.ROS2 URDF model
  • 22.ROS2 Gazebo simulation platform
  • 23.ROS2 TF2 coordinate transformation
Download
  • Annex_File
  • Code
Download ZIP

Welcome to RDK S100(P) Board repository

5. Image Segmentation(mobilenet_unet)

Image segmentation mobilenet_unet

1.Introduction

The mobilenet_unet segmentation algorithm example uses images as input and performs algorithm inference using BPU. It publishes segmentation result messages.

The mobilenet_unet model is trained on the Cityscapes dataset and the Onnx model. It supports segmentation of categories such as humans, vehicles, road surfaces, and road signs.

Code repository: (https://github.com/D-Robotics/hobot_dnn)

Applications: mobilenet_unet, composed of MobileNet and UNet, can segment images at the pixel level. It can be used for road recognition, remote sensing map analysis, medical image diagnosis, and other functions. It is mainly applied in the fields of autonomous driving, geological detection, and medical image analysis.

Background blurring example: https://github.com/rusito-23/mobile_unet_segmentation

2.Preparation

  • The RDK platform has been flashed with the provided Ubuntu 20.04/22.04 system image.
  • TogetheROS.Bot has been successfully installed on the RDK platform.
  • A MIPI or USB camera has been installed on the RDK platform. If there is no camera available, the algorithm's effects can be experienced by using local JPEG/PNG images offline.

3.Usage

3.1Using a USB camera

The mobilenet_unet segmentation example subscribes to images published by the sensor package. After inference, it publishes algorithm messages and saves the rendered images automatically in the running directory. The saved images are named in the format of render_frameid_timestampInSeconds_timestampInNanoseconds.jpg.

  • Enable USB camera node
# Configure the tros.b environment
source /opt/tros/humble/setup.bash
​x
# Configuring USB camera
export CAM_TYPE=usb
​
# Start the launch file
ros2 launch dnn_node_example dnn_node_example.launch.py dnn_example_dump_render_img:=1 dnn_example_config_file:=config/mobilenet_unet_workconfig.json dnn_example_image_width:=1920 dnn_example_image_height:=1080
  • Output Results

The terminal output during execution shows the following information:

xxxxxxxxxx
[example-3] [WARN] [1655095719.035374293] [example]: Create ai msg publisher with topic_name: hobot_dnn_detection
[example-3] [WARN] [1655095719.035493746] [example]: Create img hbmem_subscription with topic_name: /hbmem_img
[example-3] [WARN] [1655095720.693716453] [img_sub]: Sub img fps 6.85
[example-3] [WARN] [1655095721.072909861] [example]: Smart fps 5.85
[example-3] [WARN] [1655095721.702680885] [img_sub]: Sub img fps 3.97
[example-3] [WARN] [1655095722.486407545] [example]: Smart fps 3.54
[example-3] [WARN] [1655095722.733431396] [img_sub]: Sub img fps 4.85
[example-3] [WARN] [1655095723.888407681] [example]: Smart fps 4.28
[example-3] [WARN] [1655095724.069835983] [img_sub]: Sub img fps 3.74
[example-3] [WARN] [1655095724.900725522] [example]: Smart fps 3.95
[example-3] [WARN] [1655095725.093525634] [img_sub]: Sub img fps 3.91

Friendly Reminder:

You must enter the above information in the terminal.

 

The log output shows that the topic used for publishing the algorithm inference results is hobot_dnn_detection, and the topic used for subscribing to the images is /hbmem_img. The frame rate at which the images are published will adapt according to the algorithm inference output frame rate. Additionally, rendering the semantic segmentation results on the RDK and saving the images in the running path will cause a decrease in frame rate.

Original image:

Rendered image:

3.2Using IMX219 camera

The mobilenet_unet segmentation example subscribes to images published by the sensor package. After inference, it publishes algorithm messages and saves the rendered images automatically in the running directory. The saved images are named in the format of render_frameid_timestampInSeconds_timestampInNanoseconds.jpg.

  • Enable MIPI camera node
xxxxxxxxxx
# Configure the tros.b environment
source /opt/tros/humble/setup.bash
xxxxxxxxxx
# Configuring MIPI camera
export CAM_TYPE=mipi
​
# Start the launch file
ros2 launch dnn_node_example dnn_node_example.launch.py dnn_example_dump_render_img:=1 dnn_example_config_file:=config/mobilenet_unet_workconfig.json dnn_example_image_width:=1920 dnn_example_image_height:=1080
  • Output Results

The terminal output during execution shows the following information:

xxxxxxxxxx
[example-3] [WARN] [1655095719.035374293] [example]: Create ai msg publisher with topic_name: hobot_dnn_detection
[example-3] [WARN] [1655095719.035493746] [example]: Create img hbmem_subscription with topic_name: /hbmem_img
[example-3] [WARN] [1655095720.693716453] [img_sub]: Sub img fps 6.85
[example-3] [WARN] [1655095721.072909861] [example]: Smart fps 5.85
[example-3] [WARN] [1655095721.702680885] [img_sub]: Sub img fps 3.97
[example-3] [WARN] [1655095722.486407545] [example]: Smart fps 3.54
[example-3] [WARN] [1655095722.733431396] [img_sub]: Sub img fps 4.85
[example-3] [WARN] [1655095723.888407681] [example]: Smart fps 4.28
[example-3] [WARN] [1655095724.069835983] [img_sub]: Sub img fps 3.74
[example-3] [WARN] [1655095724.900725522] [example]: Smart fps 3.95
[example-3] [WARN] [1655095725.093525634] [img_sub]: Sub img fps 3.91

Friendly Reminder:

You must enter the above information in the terminal.

 

The log output shows that the topic used for publishing the algorithm inference results is hobot_dnn_detection, and the topic used for subscribing to the images is /hbmem_img. The frame rate at which the images are published will adapt according to the algorithm inference output frame rate. Additionally, rendering the semantic segmentation results on the RDK and saving the images in the running path will cause a decrease in frame rate.

Original image:

Rendered image:

3.3Local image reflow

The mobilenet_unet segmentation example uses local JPEG/PNG format images for feedback. After inference, the rendered images of the algorithm results are stored in the local running path.

  • Running the recharge node
xxxxxxxxxx
# Configure the tros.b environment
source /opt/tros/humble/setup.bash
xxxxxxxxxx
# Start the launch file
ros2 launch dnn_node_example dnn_node_example_feedback.launch.py dnn_example_config_file:=config/mobilenet_unet_workconfig.json dnn_example_image:=config/raw_unet.jpg
  • Recharge results

The following information is outputted in the terminal:

xxxxxxxxxx
[example-1] [INFO] [1654769881.171005839] [dnn]: The model input 0 width is 2048 and height is 1024
[example-1] [INFO] [1654769881.171129709] [example]: Set output parser.
[example-1] [INFO] [1654769881.171206707] [UnetPostProcess]: Set out parser
[example-1] [INFO] [1654769881.171272663] [dnn]: Task init.
[example-1] [INFO] [1654769881.173427170] [dnn]: Set task_num [2]
[example-1] [INFO] [1654769881.173587414] [example]: The model input width is 2048 and height is 1024
[example-1] [INFO] [1654769881.173646870] [example]: Dnn node feed with local image: config/raw_unet.jpeg
[example-1] [INFO] [1654769881.750748126] [example]: task_num: 2
[example-1] [INFO] [1654769881.933418736] [example]: Output from image_name: config/raw_unet.jpeg, frame_id: feedback, stamp: 0.0
[example-1] [INFO] [1654769881.933542440] [UnetPostProcess]: outputs size: 1
[example-1] [INFO] [1654769881.995920396] [UnetPostProcess]: Draw result to file: render_unet_feedback_0_0.jpeg

The log shows that the algorithm performs inference using the input image config/raw_unet.jpeg, and the rendered image is stored with the file render_unet_feedback_0_0.jpeg. The rendered image looks like this:

Image Classification(mobilenetv2)
Perception Algorithm(BEV)

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