RH56F1 Tactile Sensor Dexterous Robotic Hand | Inspire Robots
RH56F1 Tactile Sensor Dexterous Robotic Hand | Inspire Robots
RH56F1 Tactile Sensor Dexterous Robotic Hand | Inspire Robots
RH56F1 Tactile Sensor Dexterous Robotic Hand | Inspire Robots
RH56F1 Tactile Sensor Dexterous Robotic Hand | Inspire Robots
RH56F1 Tactile Sensor Dexterous Robotic Hand | Inspire Robots
RH56F1 Tactile Sensor Dexterous Robotic Hand | Inspire Robots

RH56F1 Tactile Sensor Dexterous Robotic Hand | Inspire Robots

Sale price$7,400.00

Hand:Left Grey
Tactile Sensor:With Tactile Sensor
Communication:EtherCAT+RS485
Quantity:

Product Overview

Advanced Robotic Hand with Intelligent Tactile Sensing

The RH56F1 Dexterous Robotic Hand with Tactile Sensors is a high-performance anthropomorphic robot end effector designed for humanoid robots, robotics research, and intelligent manipulation systems.

Featuring 5 fingers, 6 degrees of freedom, and 12 joints, the RH56F1 replicates natural human hand motion and enables precise object grasping and manipulation. Integrated multi-dimensional tactile and force sensors allow the robotic hand to detect contact pressure and grip force in real time, enabling adaptive grasp control and stable object handling.

With high-speed communication and advanced control algorithms, the RH56F1 provides a powerful platform for robotics developers and researchers building next-generation humanoid robot

Key Features

Human-Like Dexterity

Anthropomorphic five-finger design with 6 DOF and 12 joints enables flexible and natural finger movements for complex robotic manipulation.

Advanced Tactile Sensor System

Equipped with multiple tactile sensors capable of detecting pressure and contact conditions, allowing robots to perform precision gripping and slip detection.

Multi-Dimensional Sensor Integration

The system integrates up to 24 sensors including tactile, force, position, and temperature sensors, providing rich feedback for intelligent control strategies.

High Precision Motion Control

Repeat positioning accuracy of ±0.2 mm ensures stable and precise object manipulation for robotics research and automation applications.

High-Speed Real-Time Communication

Supports EtherCAT and RS485 communication interfaces, enabling real-time control with up to 1 kHz communication rate.

Technical Specifications

Parameter Specification
Model RH56F1
Fingers 5
Degrees of Freedom 6 DOF
Joints 12
Weight 620 ±10 g
Repeatability ±0.2 mm
Operating Voltage 24V – 48V
Peak Current 5A @ 24V
Communication Interface EtherCAT + RS485
Fingertip Grip Force ≥15 N
Tactile Sensor Range 30 N
Tactile Sensor Accuracy 5% FS
Number of Tactile Sensors up to 8

These specifications enable precise and responsive robotic manipulation in research and industrial robotics applications.

Applications

The RH56F1 tactile robotic hand is widely used in advanced robotics systems including:

  • Humanoid robots

  • AI robotics research platforms

  • Robot manipulation experiments

  • Human-robot interaction systems

  • Service robots

  • Industrial automation research

Its tactile sensing capability allows robots to perform delicate manipulation tasks and adaptive grasp control.

Integration & Compatibility

The RH56F1 robotic hand can be integrated with a wide range of robotic platforms:

  • Humanoid robots

  • Robotic arms

  • ROS-based robotics systems

  • AI manipulation platforms

Developers can easily connect the robotic hand through supported communication protocols for real-time motion control and sensor feedback.

Package Includes

  • 1 × RH56F1 Dexterous Robotic Hand

  • Communication and power cables

  • Control software package (API & configuration tools)

  • Technical documentation


FAQ

Does the RH56F1 include tactile sensors?
Yes. The robotic hand integrates tactile sensors capable of detecting contact pressure and grip force.

What robots can this hand be used with?
It can be integrated with humanoid robots, robotic arms, and robotics research platforms.

What communication interfaces are supported?
The RH56F1 supports EtherCAT and RS485 communication protocols.