ROS Educational Robot
Support ROS2/mapping navigation/depth vision/technical support
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Product Introduction
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ROSHunter is our ROS robot car developed for ROS education programming. It is equipped with a series of high-performance hardware, including NVIDIA Jetson Nano, high torque coding deceleration motor, LiDAR, 3D depth camera, 7-inch LCD display screen, cool programmable car lights, and more. These hardware configurations enable ROSHunter to develop and apply various aspects such as robot motion control, ROSSLAM algorithm, mapping navigation path planning, deep learning, and visual interaction.
ROSHunter offers a variety of chassis options to fully adapt to the ROs2 system, which not only better meets users' learning and verification needs for robot SLAM functions, but also provides a fast and convenient integration solution for ROS development. In addition, the accompanying ROS course covers rich technical materials, functional source code, course documentation, and instructional videos, helping users quickly master the development and application of ROS robots.

Full support for ROS2 Map Navigation 3D real scene mapping Visual recognition

Four Wheel Plate Wheat Wheel Plate Ackermann chassis Crawler chassis

Path planning Multi-point navigation APP control Handle control

Deep learning PID control Multi aircraft formation Machine learning

OpenCV Development Manual Video tutorial Technical Support
Multiple chassis options to choose from
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When exploring the world of ROS robots, one can choose from four vehicle models based on specific learning objectives and practical application scenarios. Each model is carefully designed to provide the best learning experience and application performance for users with different skill levels.

Ackermann Mecanum wheel Tracked vehicle Differential car
① Ackermann steering chassis with flexible front wheel steering control
Ackermann steering chassis inherits the standard steering architecture of modern cars, with precise steering accuracy achieved through fine angle adjustment of the front wheels for navigation, making it particularly suitable for research with high simulation requirements for vehicle driving dynamics.
In order to optimize the stability of the four-wheel contact with the ground, the rear wheels of the chassis are equipped with a pendulum suspension system, which can adapt to uneven road surfaces and ensure the measurement accuracy of the motor encoder odometer. The all metal CNC precision manufacturing of its steering components provides durability and precision.

② Mecanum wheel chassis moves in all directions
The Mecanum wheel chassis endows the ROS robot with 360 degree omnidirectional mobility, enhancing its flexibility in narrow spaces. As an omnidirectional maneuvering structure, it particularly meets the complex application requirements of multi angle operation.
(1) Straight ahead (2) Side movement (3) Turn right

③ Tracked chassis
The tracked robot chassis, with its excellent adaptability and stability, can easily handle various complex terrains. Equipped with nylon tracks and high-performance DC motors, it ensures precise control and provides reliable support for transportation and other fields. Its flexible direction and angle adjustment optimize the learning and development experience of robots.

④ Four wheel drive chassis differential drive
The four-wheel chassis is controlled by motor differential steering, providing flexibility and easy operation, suitable for education and beginners. Equipped with 100mm diameter rubber wheels, ensuring small deformation and high mobility, simplifying mechanical structure while maintaining excellent performance.

Full support for ROS2
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ROS2 aims to become the preferred operating system widely used in various types of robots, and currently, it has become the direct choice for almost all robot companies' newly approved projects. The car will be equipped with the ROS2Galactive version, and the adaptation work for the ROS2Humble version is steadily progressing.

2020 Release Noetic Ninjemys The official recommended version of ROS is the LTS version of ROS1 after Zui, and no new versions will be released in the future. It is compatible with the mainstream Ubuntu 20.04, the preferred version for learning ROS, and supports mainstream Python 3. x. It has a significant advantage in terms of the number of feature packs and new additions. | ROS2 galactic provide multiple functional case studies |
ROS (Robot Operating System)
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Global mainstream robot communication framework
ROS (Robot Operating System) is an open-source meta-operating system for robots. It provides services similar to those of an operating system, including hardware abstraction description, low-level driver management, execution of common functions, inter-process message passing, and program distribution package management. Its main goal is to provide support for code reuse in robot research and development

ROS = Communication mechanism + Development tools + Application Functionality + Ecosystem
① Lidar mapping and navigation
Can develop SLAM algorithms such as Gmapping, Karto, Hector for mapping, and support path planning, fixed-point, navigation, and multi-point navigation.

② RTAB-VSLAM 3D Visual Mapping and Navigation
Using the RTABSLAM algorithm, a 3D color map is constructed by integrating visual and radar data. The robot can autonomously navigate and avoid obstacles in the map, and supports global repositioning and autonomous positioning functions.

③ Multi point navigation dynamic obstacle avoidance Lidar can detect the surrounding environment in real time and re plan the path after detecting obstacles. | ④ Depth image data point cloud image Through the corresponding API, depth images, color images, and point cloud data of the camera can be obtained. |

⑤ MediaPipe development, machine vision processing
By using the MediaPpe development framework, functions such as face detection, edge detection, augmented reality, and color recognition can be achieved.

⑥ KCF target tracking The image-based KCF correlation filtering algorithm can select any object in the image and achieve target tracking. | ⑦ RGB programmable headlights Ackermann, Mecanum wheels, and four-wheel bodies support 8 editable RGB headlights. |

Dual brain architecture collaboration
Performance Upgrade
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JetsonNano leads ROS algorithm and visual processing, while STM32 is responsible for motion control and sensor data processing. Intelligent division of labor between the two, achieving dual improvement in performance and efficiency
| ① Main control board: Jetson Nano ROS SLAM algorithm Sensor data fusion visual recognition image processing deep learning human-computer interaction edge computing Multitasking ...... Motor drive feedback Servo drive feedback IMU processing Sensor data collection Encoder reading Battery voltage detection Peripheral device control. ..... |
Ergonomic design expands horizons
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Thanks to our innovative linkage design, the display screen of the robot car is different from similar products, achieving infinite adjustment ability of screen angle and supporting free folding from 0 to 90 degrees, aiming to provide a tilted visual experience. This design provides flexible angle adjustment, making it easy to find the optimal usage angle that is more ergonomic.

ROS Easy to Use Artificial Intelligence Interaction
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The robot car is equipped with the "XR-ROS human-machine interaction system" independently developed by XiaoR Technology, which enables users to monitor the status and various information of the robot in real time. With this system, users can easily interact and manage without relying on the command line or other complex operating methods.

Operation method
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Mobile APP remote control Support mobile app control of robots, combined with virtual machines, can achieve applications in various scenarios. | Wireless controller Equipped with a wireless joystick as standard, it can control the movement and pan tilt operation of the robot. |
Product Parameters
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Product Model | ROSHunter SLAM Autonomous Navigation and Vision Education Robot | |||
chassis type | Ackermann chassis | Mecanum wheel chassis | Crawler chassis | Four-wheel drive chassis |
Product size (mm) | 294*138*223 | 303*249*226 | 326*234*229 | 319*256*243 |
Product weight | 3500g | 3000g | 3000g | 3050g |
ROS main controller | Nvidia Jetson Nano 128-core NVIDIA Maxwell™ architecture GPU | |||
Sub-control board | XR-PNL-4RL-32 | |||
LiDAR | XR-LIDAR S2 | |||
camera | DCW depth camera | |||
motor | XR520 Permanent Magnet DC Geared Motor with Encoder | |||
battery | 10000mAh | |||
operating system | Ubuntu20.04LTS+ROS Melodic | |||
communication method | USB/WIFI/Ethernet | |||
Control method | Mobile app/Wireless controller/PC | |||
programming tools | Python /C/C++ /JavaScript | |||
storage | 64GB TF card | |||
Body material | All-metal aluminum alloy chassis | |||
Steering servo motor | S015M 15KG Metal Shaft Servo (Ackerman Version) | |||
headlight | 8 RGB LED beads | |||
① Depth cameras are standard across the entire range
| Binocular imaging can provide high-precision depth images within 0.2-2.5m. The camera adopts a modular design and integrates a depth computing platform |
DCW Depth Camera | |||
Baseline | 40 mm | Data transmission | USB2.0 Type-C |
Working distance | 0.2m-2.5m | Power consumption | Average power consumption < 2.3W |
Depth accuracy | 1.0%@1m | Power supply method | Type-C |
Depth image | Supports up to 1024x768 resolution | Applicable scenarios | Indoor |
Depth FOV | H79° V55°D88.5°+3° | Safety | Class 1 laser |
② Laser radar
LIDARS2 laser radar is equipped with a high-speed image processing chip, which can perform 360 degree all-round laser ranging scanning within a radius range |
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XR-LIDAR S2 LiDAR | |||
Working Voltage | 5V | Scanning angle | 360° |
Operating current | 250mA | Output interface | UART serial port |
Laser Safety | Class I | Operating Temperature | -10℃~+40℃ |
Measure distance | 150mm-6000mm | Pitch angle | 0°~1.5° |
Angular resolution | ≤1° | Laser light source | 780nm LD |
③ Standard 7-inch display screen
| Foldable 90 degree display screen |
90° foldable 7-inch high-definition touch LCD screen | |||
Display screen size | 7 inch | Operating Temperature | -20℃~ + 70℃ |
Maximum folding angle | 90° | Brightness | 500LCM |
Use | Windows/Linux | Size | 165*110*20mm |
Resolution | 1024*600PX | Weight | ≤266g |
④ High performance two degree of freedom gimbal
S370 High Voltage Bus Serial Servo |
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High-performance two-degree-of-freedom gimbal | |||
Servo model | S370 high-voltage bus serial servo | Locked-rotor torque | 30kg.cm |
Control method | UART serial port command | Readback function | Support angle readback |
Baud rate | One hundred and fifteen thousand and two hundred | Control algorithm | PID |
Protect | Stall protection/overheat protection, etc | Servo ID | Power-off protection for user settings from 0 to 253 |
Electronic resolution | 0.088° | Weight | ≈55g |
Ackermann vehicle size diagram

Dimensional drawing of four-wheel differential vehicle body

Dimensional drawing of tracked vehicle body

Dimensional drawing of wheeled vehicle body

Shipping List
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Robot assembly and debugging completed, finished product shipped

Robot machine Remote control handle Charger Card reader Warranty Card
| Optional robot specific aviation aluminum box Optional robot aviation aluminum box for shipment, the box body is not easily deformed, sturdy and durable, ensuring safety and protection during long-distance transportation. If needed, please contact customer service for price difference and optional selection |
Our services
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About express delivery | Gift materials | Technical Support |
Our goal is to continuously improve our own technical capabilities and place greater emphasis on the customer's product experience.
















