Research
We connect material physics, device engineering, and system demonstrations to bring sensing, memory, and computation into compact, energy-efficient hardware.
Four connected directions.
Each direction begins with device physics and advances toward functional hardware for intelligent perception, information storage, and energy management.
Neuromorphic In-Sensor Computing
Optoelectronic devices that sense, memorize, and process visual information directly at the point of acquisition, reducing data movement and post-processing.
Ferroelectric Optoelectronic Memory
Programmable photonic and electronic memory enabled by ferroelectric polarization, charge trapping, and engineered light–matter interactions.
Intelligent Multimodal Sensors
Flexible and integrated devices combining visual, tactile, thermal, and proximity information for robots, wearables, and embodied systems.
Photonic & Thermal Management
Spectral, radiative, and electrocaloric strategies for adaptive photonic platforms and efficient solid-state thermal control.
From materials to systems.
Functional material platforms
Ferroelectric polymers, emerging semiconductors, nanostructured photonic materials, and flexible composites.
Device physics & engineering
Polarization, charge transport, photogating, optical resonance, thermal transport, and interface control.
Arrays & heterogeneous systems
Pixel arrays, sensor–memory integration, transfer printing, compact readout, and multifunctional hardware.
Application demonstrations
In-sensor processing, adaptive vision, embodied sensing, non-volatile photonics, and solid-state cooling.