This project aims to develop eNose-guided wireless implantable systems for healthcare applications, integrating advanced microfabrication, wireless power transfer, and optically controlled biointerfaces into a unified bioelectronic platform.

Building on existing volatile organic compound (VOC) sensing technologies, the focus lies on the design and realization of miniaturized, battery-free implants that combine printed microelectronics, high-efficiency inductive power harvesting, and embedded µLEDs for localized optical actuation.

Novel printing approaches will be explored to fabricate high-resolution conductive structures, micro-coils, and interconnects, enabling scalable and cost-effective manufacturing of millimeter-scale devices.