Inspire RH56F1 Series Robotic Hand

Dexterous robotic hands for research and industrial automation

INSPIRE robotic hands combine human-like agility with precise gripping technology for research, development, and industrial automation. As dexterous robotic hands, they feature five movable fingers, an opposable thumb, and, depending on the model, integrated force or tactile sensing. This allows them to not only pick up and put down objects, but also hold, rotate, align, and adapt to different shapes in a controlled manner. For companies, universities, and research institutions, this creates a versatile end-effector for humanoid robots, robotic arms, and custom experimental systems. Further information on the manufacturer, grippers, and actuators can be found on our INSPIRE ROBOTS manufacturer page.

Human-like kinematics for versatile gripping patterns

The anthropomorphic design enables movement sequences that are difficult to implement with classic two-finger grippers. Depending on the model, six or thirteen degrees of freedom and twelve to eighteen joints are available. This allows for the execution of pincer grips, three-finger grips, enclosing grips, and differentiated finger positions. A five-fingered robotic hand can offer advantages, especially with changing object shapes, small components, or operating tasks on existing infrastructure. Their use is therefore not limited to humanoid systems: dexterous hands can also be a flexible alternative to rigid grippers in laboratory setups, teleoperation solutions, prototypes, and special end-of-arm applications.

The right INSPIRE robotic hand for various requirements

The model series focus on specific priorities. The RH5DG2 offers particularly high mobility with thirteen degrees of freedom and eighteen joints. The RH56E2 focuses on real-time tactile perception and can detect local pressure information on the hand. The RH56DFX combines a compact, human-like design with force sensing and is suitable for controlled manipulation tasks. The RH56BFX was developed for fast gestures and dynamic finger movements. The RH56F1 complements the range with a robust all-metal skeleton, EtherCAT and RS485 connectivity, and optional tactile sensing. This allows the product selection to be specifically aligned with mobility, speed, gripping force, sensor technology, and communication interface.

Tactile sensing and force control for controlled gripping

For sensitive, smooth, or irregularly shaped objects, simple position control is often insufficient. Models with force or tactile sensors can detect contact and pressure during the gripping process and provide it for finer control. The RH56E2 uses integrated tactile sensors for this, while other versions offer force sensors or optional T1 tactile sensors depending on the model. This supports tasks where an object needs to be held securely without applying unnecessarily high pressure. Typical examples include the handling of sensitive components, picking up laboratory vessels, aligning small workpieces, or investigating learning-based gripping strategies in AI and robotics projects.

Robotic hands for assembly, handling, and operation tasks

In industrial automation, dexterous robotic hands can be particularly interesting where frequently changing components, different gripping positions, or human-like operating actions occur. These include pick and place, kitting, sorting, reorienting, inserting into fixtures, as well as operating buttons, switches, or knobs. Picking up tools, transferring components between stations, and positioning small workpieces are also possible fields of application.

For standardized high-speed processes, a specialized gripper often remains the more efficient solution. For varied tasks, flexible pilot cells, or existing workplaces, however, an anthropomorphic robotic hand can create more operational leeway. Practical information on such applications can be found on our page on robots for assembly and handling.

When does a dexterous robotic hand make sense?

A five-fingered robotic hand is particularly interesting when a system needs to master not just a single standardized component, but various objects and interactions. Thanks to the individually controllable fingers, grip patterns can be adapted to the shape, size, and position of the object. This is relevant, for example, for small series, changing research setups, service tasks, or work in an environment designed for humans.

When considering economic efficiency, however, complexity and flexibility should be weighed against each other. A parallel gripper is often easier to integrate for a stable, consistent process. A dexterous robotic hand offers its advantages primarily when multiple grip types, object variants, or operating actions are to be covered with a single end-effector.

Research, education, and AI-based manipulation

For research, education, and AI development, five-fingered robotic hands offer a practical platform for investigating motion planning, gripping strategies, teleoperation, and sensor-based control. Learning systems can test different object shapes, contact points, and grip sequences, while students can understand the interaction between mechanics, sensors, control, and software.

The choice of different hand models is also relevant for demonstrators and prototypes. Depending on the research question, the focus can be on high mobility, tactile feedback, fast finger movement, or mechanical robustness. This allows experimental setups to be more specifically tailored to the respective application and gradually expanded with additional sensors, camera systems, or AI-based controls.

Integration into robotic arms and humanoid platforms

Before purchasing a robotic hand, mechanical, electrical, and software requirements must be considered together. The available mounting surface, the permissible weight on the robot arm, the power supply, the desired hand side, and the communication interface are decisive. Depending on the INSPIRE model, RS485, CAN, Modbus TCP, or EtherCAT are available, among others. For two-handed robot systems, various series are available as left and right versions.

The control architecture is also important: Should the hand merely execute defined grip positions, report back force values, or become part of a learning manipulation pipeline? An overview of suitable platforms, application areas, and selection criteria is provided on our topic page on humanoid robots.

Buying a robotic hand: Important selection criteria

Anyone wanting to buy a robotic hand or integrate it into an existing system should first define the specific use case. What objects are being gripped? How heavy, sensitive, or variable are they? Which grip types are required, and what cycle time is realistic? Equally relevant are repeatability, fingertip force, speed, sensors, interface, and available software.

For research and education, mobility, data access, and programmability may be in the foreground. In industrial projects, robustness, reproducible processes, spare parts strategy, and integration effort gain importance. A clearly defined proof of concept reduces risks and shows at an early stage whether mechanics, perception, and gripping strategy work together reliably.

Consulting and project support from Terra Robotics

Terra Robotics provides support in selecting a suitable INSPIRE robotic hand and in technically classifying the available models. Together, the gripping task, object geometry, required force, mobility, sensors, hand side, and system integration are evaluated. For complex projects, a step-by-step approach is recommended: first check requirements and interfaces, then carry out a realistic gripping test or proof of concept, and only then scale the integration.

This creates not an isolated component, but a robotic solution that fits the application and the existing system. For an individual assessment, you can describe your project directly via our contact form for robotics projects.