Application
Fingertip and Inline Joint Systems in Humanoid Robotics. Micro-Measurements’ miniature tactile force sensing capabilities are engineered for seamless integration into compact robotic assemblies— such as humanoid fingertips and knuckle joints. Designed for ultra-thin, low-capacity applications, these capabilities enable accurate, real-time measurement of both tension and compression forces, supporting delicate manipulation and safe, precise interaction with the environment.
Key Capability Highlights
- Ultra-Compact, Ultra-Thin Integration We enable sensorization in spaces, with sub-gram mass – ideal for fingertips, joints, and embedded robotic mechanisms.
- Dual-Mode Force Measurement Our strain gage architectures support accurate sensing of both tension and compression forces in a single, compact configuration.
- Front-End Mounting Flexibility Our designs incorporate stable attachment points for efficient assembly into high-density or moving systems.
- High Mechanical Responsiveness With natural frequencies approaching 98 kHz, our sensing structures support fast, dynamic response suitable for high-speed robotic control.
- Flexure-Based Architecture Custom flexure geometries ensure high sensitivity, mechanical stability, and long-term durability.
Integration Benefits
- Low Inertia, High Agility By minimizing added mass, we preserve the robot’s natural dynamics and responsiveness especially critical in limbs and end-effectors.
- High-Fidelity Force Feedback Precision signal conditioning enables smooth, stable force control, even in sensitive tasks like gripping, placement, or interaction.
- Thin Profile, Dense System Fit We support integration into restricted geometries where catalog sensors don’t fit without sacrificing performance.
- Custom Mechanical & Electrical Interfaces We tailor everything from flexure geometry to output format, ensuring the sensing capability aligns precisely with your system’s design, protocol, and space constraints.
Recommended Applications
- Humanoid fingertip and Miniature end effectors requiring tactile feedback.
- Agile robotic grippers and manipulation systems.
- Biomedical or surgical robotics with compact form factor constraints.


