KiriSense | Tactile intelligence for robotics

Giving Robots a Sense of Touch

Tactile intelligence engineered through geometry.

KiriSense Ltd develops geometry-encoded robotic tactile sensing for robot fingertips and manipulation, using kirigami structures that mechanically encode information about physical contact.

GEOMETRY FIRSTMechanical encoding at the point of contact
kB, NOT MBDesigned for compact tactile signals, rather than high-resolution image streams
PoC ACHIEVEDDistinct normal and shear responses demonstrated
CURRENT STAGEQuantitative characterisation

Architecture difference

Illustrative common approaches

Specialist sensing material / image captureReadoutProcessing

KiriSense

ContactKirigami geometryMechanical encodingCompact optical signal

Development status

01Geometry & IP
Complete
02Proof of concept
Complete
03Quantitative characterisation
Now
04Robot integration
Next
05Productisation

TECHNOLOGY OVERVIEW

See KiriSense in action

Vision tells a robot what is there. Touch tells it what happens when it makes contact.

See how KiriSense uses mechanically encoded tactile sensing to turn force and movement into compact information for robotic control.

Video transcript

Robots can already see the world. But seeing an object is not the same as knowing how to handle it. For that, robots need touch.

KiriSense uses proprietary kirigami geometry to mechanically encode force at the point of contact. The technology is protected by a growing portfolio of UK patent applications.

Normal force produces one optical signature. Shear and lateral movement produce another. Early proof-of-concept testing of KiriSense’s technology through its research collaboration with the University of Sheffield has already demonstrated distinct, reversible responses to different types of force.

Because the geometry performs the mechanical encoding, KiriSense can turn touch into a compact tactile signal without a camera or image stream. That means low latency, low data and a lower-cost sensing architecture.

The opportunity spans food handling, logistics, flexible materials and high-throughput automation.

As robots move into the physical world, touch becomes essential.

KiriSense is giving robots a sense of touch.

Proof of concept achieved

Experimental evidence for a geometry-first sensing principle

KiriSense’s kirigami structures have now been tested through its research collaboration with the University of Sheffield, demonstrating deformation-dependent, spatially asymmetric optical responses. Normal force and shear produce visibly different signatures, with shear creating a more asymmetric response.

Why KiriSense is different

A different sensing architecture

Geometry first

Mechanical response carries information

Useful tactile information is encoded in the mechanical response of the structure itself.

Material flexible

Designed around the application

The architecture is not intrinsically tied to a single specialist sensing material, allowing materials to be selected around the requirements of different robotic applications.

Designed to scale

A route towards standardisation

A repeatable geometric architecture and simple optical readout provide a potential route towards standardised, low-cost manufacture.

Low-data architecture

Designed for useful local information

KiriSense is designed to extract useful tactile information locally rather than depend on high-resolution image streams.

From industrial robots to humanoids

Applications

Local feedback where it matters

Tactile sensing can support manipulation where objects vary in shape, surface and behaviour.

Explore applications

Robotic hands and grippers

Contact intelligence at the point of interaction

KiriSense is developing tactile sensing for robotic hands, grippers and end-effectors.

Contact KiriSense

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