Tekscan’s High Speed TireScan™ system captures the impact of speed, motion, and inertial forces on a tire at speeds up to 265 km/h (165 mph).

A 2019 study published in the Journal of the Electrical Chemical Society used Tekscan pressure mapping sensors and software as a visual tool and means of data gathering over time to reveal hot spots at various pressure applications.

Research in the Journal of Experimental Orthopaedics: Why are tapes better than wires in knotless rotator cuff repairs?

Researchers at the Univerity of Illinois at Urbana-Champaign studied Rail Seat Deterioration and pressure distribution in concrete sleepers (rail ties) using Tekscan tactile sensors.

Ultra-thin piezoresistive sensors can be used in both R&D and as embedded components to develop safer, longer-lasting lithium-ion battery technologies.

Land, sea, and air travel are all affected by interface pressure exchanges. This video shares four unique applications for how pressure mapping technology can improve designs for a safer, smoother ride.

This short video shares some of the many diverse ways to use F-Scan in-shoe pressure mapping technology in your research or clinic.

Whether you are looking for biomechanical insights to develop footwear, artificial joints, or gain a deeper understanding of human/animal movement patterns, information from Tekscan pressure mapping technology can help.

In a clinical setting, a gait curve can be used to help diagnose issues with a person's gait and foot function. Let's look at the possible clinical associations of some common abnormalities that can be identified with the help of gait curves.

Tekscan CTO Rob Podoloff shares his insight on the diverse roles for printed force and pressure sensing technologies in medical devices and automotive design.