Self-powered sensing
Piezoelectric energy harvesting can reduce wiring and battery dependence in distributed sensor networks.
Research
We create fluorine-free ferroelectric polymers that perceive mechanical signals, generate physical response, and connect intelligent algorithms with the real world.
Research overview · Physical AI
Physical AI needs more than computation. It needs a material layer that can feel the world, convert stimuli into useful signals, and return precise mechanical action. Ferroelectric Polymer Brushes provide that electromechanical interface.
Pressure, strain, motion, touch, and physiological signals.
Force, shape change, haptics, adaptive optics, heating, and cooling.
Closed-loop interaction among material, controller, body, and environment.
Perceptive matter
We build FePBs from a tunable backbone, strongly dipolar side-chain segments, and flexible tails. Their programmable architecture links molecular polarization to high-fidelity electrical signals.
Actuating matter
We combine ferroelectric ordering with elastic recovery and tunable modulus—creating soft materials that sense deformation and generate stable, programmable physical response.
Integrated intelligence
We integrate sensing and actuation into systems that interact continuously with people and dynamic environments. The goal is not merely smart electronics, but embodied material platforms that support intelligent physical behavior.
Enabling capabilities
Piezoelectric energy harvesting can reduce wiring and battery dependence in distributed sensor networks.
Relaxor FePB capacitors can support compact, fast-response electronics close to the sensing and actuation layer.
Electrocaloric functionality opens routes to localized cooling and thermal feedback in intelligent interfaces.
Across every direction