Robotic Arm for Education, Scientific Research, Artificial Intelligence, and Related Fields – OPEN R6

This focuses on the research and educational support roles of six-axis robotic arms in machine learning, computer vision, and human-robot interaction. Applications include enabling autonomous operation of robotic arms through AI algorithms and visual recognition-based grasping tasks.

Specific applications for teaching and research include:

1. Integration of Open-Source Large Models with Robotic Arms:
   Understanding and applying open-source large models, multimodal fusion technologies, robotic arm control techniques, and real-time interaction and feedback mechanisms.
2. SDK Training and Autonomous Programming for Robotic Arms:
   Using and developing SDKs, creating and training SDK datasets, machine learning and reinforcement learning, designing autonomous programming frameworks for robotic arms.
3. Deep Learning and Robotic Arm Visual Perception:
   Deep learning models, computer vision technologies, visual servo control, cross-modal fusion, and decision-making.
4. Unordered Grasping with Deep Vision:
   3D vision and point cloud processing, robotic arm grasp planning algorithms, compliant control for robotic arms, and multi-object path optimization.
5. Voice-Controlled Robotic Arms and Human-Robot Interaction:
   Speech recognition, natural language processing, speech synthesis, interactive feedback, dialogue management systems, and multimodal interaction fusion.

Robotics, Automation, Mechanical Engineering, and Related Fields

This emphasizes the application value of six-axis robotic arms in course instruction, laboratory training, and research projects. Focus areas include robotic motion control, simulation of automated production lines, design of end-effector tools, and mechanical manufacturing process practice.

Specific applications for teaching and research include:

1. 1. Joint Control and Feedback for Robotic Arms:
      Motor drive and control, sensor technologies, multi-joint coordination, and intelligent control algorithms.
   2. Design and Development of Wireless Teleoperation Systems:
      Wireless communication technologies, transmitter and receiver design, real-time communication reliability, hardware design, and implementation of teleoperation systems.
   3. Multi-Robot Synchronization and Coordinated Control:
      Coordinated control strategies for multiple motors, dynamic planning and optimization algorithms, fault detection and fault-tolerant control, real-time communication, and information sharing.
   4. Visual Guidance and Robotic Path Planning:
      Computer vision technologies, path planning algorithms, dynamic programming and optimization, real-time perception and decision-making.
   5. End-Effector Design and Expansion:
      Design of end-effectors, material selection, mechanical analysis, intelligent perception and control, expanded applications, and compatibility.

This product is a custom-made item with a delivery lead time of 6 to 8 weeks.