Standard DH116
- 11-DOF High Dexterity Motion Design
- High-Efficiency Brushless Coreless Motor
- Precise Worm Gear Transmission System
- 545g Ultra-Light weight Integrated Structure
- Optional multi-modal tactile sensors
The ID can be changed via the host computer.
The DH116S tactile version is still under development. Currently, the DH116 is available with tactile sensor integration.
The communication frequency can reach over 100 Hz. With CANfd, the maximum communication frequency can reach 500 Hz.
Under 24V power supply for the basic version, the standby current is 12 mA, the no-load average current (five-finger flexion and extension) is 100 mA, and the maximum current is 4.6 A.
Please check the wiring connections (whether the driver for the communication device is installed, whether the power supply is correctly connected, and whether the signal lines are properly connected to the communication device).
Check whether the power supply capacity covers the maximum power of the dexterous hand. The maximum power for a single dexterous hand can reach 100W. Under 24V power supply, it is recommended to set the current limit to 8A or above. Verify whether the connected power supply meets this requirement.
1 stroke unit is equivalent to 1/10,000 of the maximum travel of the dexterous hand's finger movement. The unit of speed is 0.001 stroke/second. The unit of current is 0.001A. Speed and current can be positive or negative, where positive and negative represent the direction of finger movement.
The required environment software needs to be installed. After extracting the host computer software package, the installation will proceed automatically.
The module is designed for flange mounting. The hollow structure facilitates routing of air pipes, cables, etc. through the center. Installation at any angle is supported. It is recommended to install according to the 3D drawing while keeping the axial load centered.
Yes. We can provide standard installation interface dimensions, flange interfaces, output shaft dimensions, and other information. Fast non-standard customization services are also available.
They support mainstream protocols such as EtherCAT、CAN and CAN FD, offering good compatibility. Communication manuals and sample code are available for quick integration with mainstream controllers.
Yes. Debugging tools and basic development interfaces (e.g., communication protocol documents) are provided to facilitate quick access and testing for developers.
Both harmonic gear and planetary reducer options are available. Harmonic reducers are lightweight and high-precision, making them suitable for collaborative robots. planetary reducers offer high rigidity and impact resistance, making them suitable for industrial robots or heavy-load applications. Under normal operating conditions, the lifespan is generally 5 to 10 years.
The design lifespan is typically over 10,000 hours, supporting 7×24 continuous operation.
They have been applied in collaborative robots, industrial automation, humanoid robots, and medical rehabilitation robots, with positive customer feedback and stability exceeding that of competitors.
Standard modules are recommended for use in normal room temperature environments.
Yes. The modules have built-in temperature, current, and voltage detection mechanisms, and feature multiple protection functions including over-temperature, over-current, and stall protection.
Yes. Non-standard customization is supported, including flange dimensions, shaft length, output type, communication interface, cable interface, and more. You are welcome to provide 3D drawings or technical requirements to discuss customization details.
Due to the integrated design, some components may not be suitable for individual replacement. However, detailed maintenance instruction videos or illustrated manuals can be provided to assist customers with maintenance operations.
Yes. Stator and rotor assemblies are available. Standard mounting dimension drawings and custom non-standard designs are supported. Machining accuracy of the mounting surface and concentricity must be ensured.
The stator can be fixed by thermal shrink fitting (recommended interference ≥ 0.02 mm) or adhesive bonding (clearance ≥ 0.02 mm, with a glue groove recommended). The rotor is fixed with adhesive, with a clearance of approximately 0.02 mm; a glue groove is recommended on the shaft.
A servo drive is required. We offer an in-house integrated ring drive or an external Mini drive, and can also recommend compatible models.
Yes. Incremental, absolute, and magnetic encoders are supported, enabling closed-loop control and high-precision positioning.
A drive that supports brushless servo control is recommended. Compatible drives are also available from us.
Yes, in most cases. Compatibility depends on interface types (encoder type, voltage and current levels), which need to be confirmed.
Smoothness is determined by the drive control logic. We can provide tuning recommendations and a zero-position calibration manual.
Yes. With an encoder and a closed-loop drive, high-precision position, speed, and torque control are achievable. Some solutions support impedance/force control modes.
The motor has an open structure. Additional protection (e.g., dust covers or sealed cavities) is recommended when integrating into the end application. We can provide protection recommendations.
Normal service life exceeds 20,000 hours, suitable for 7×24 continuous operation. Widely used in medical devices, robotics, and other fields.
Yes, there are successful cases across multiple industries, with validation through temperature rise, shock, aging, and other tests.
Yes. Non-standard customization is supported for rotor outer diameter, stator thickness, voltage/current, etc. Minimum order quantities are flexible, and prototype delivery typically takes 4–6 weeks.