Device fabrication and electrical characterization underpin our programme. Bioelectronics and Sensors is the principal focus, while a complementary strand examines terahertz detection and wave control.
Ion sensing, biomarker detection and bioelectronic interfaces guide our work on transistor architectures and coupled ionic–electronic transport. The aim is to convert chemical and biological interactions into measurable electrical responses.
Subareas: Wearable Electronics · Printed Electronics · Molecular Electronics
Flexible materials, solid-state organic electrochemical transistors and ion-sensitive devices provide routes to sensors that interface with the body.
Printable electronic materials connect processing choices with device fabrication and electrical performance.
Molecular and biomolecular materials can shape charge transport and device function. This subarea includes protein-based and self-assembling materials, studied in transistors and resistive-switching devices.
Semiconductor heterostructures and nanostructured materials support our optical and terahertz work. Published studies cover ultraviolet and dual-band photodetection and terahertz modulation; current investigations address detector architectures and metasurface integration.
Image: Representative earlier optical-detector research.