A new class of soft functional materials for stretchable wireless electronics enables stable wireless communication under mechanical deformation by controlling electromagnetic fields through stretchable dielectric composites. These materials maintain consistent permittivity during stretching, allowing reliable antenna performance. In parallel, stretchable conductive composites are developed for antenna elements and circuit interconnects, ensuring electrical stability. Together, they support the design of fully flexible, skin-conformal wireless systems for applications in wearable and bio-integrated electronics. 

Bio-interfaced materials for translational skin-integrated bioelectronics focus on developing highly soft ionic materials with tunable mechanical and electrical properties for seamless integration with the skin. Our goal is to not only optimize these properties but also incorporate the materials into functional systems such as electrotactile haptic interfaces and electrophysiological sensors (ECG, EMG, EEG etc.) for medical applications. This approach enables the development of soft, skin-conformal bioelectronic devices for next-generation healthcare. 

Printable electronic materials for next-generation electronics focus on integrating functional nanocomposites with scalable printing techniques to fabricate advanced electronic systems. Printing offers a low-cost, industry-compatible process capable of patterning and structuring electronic materials with high precision. By combining printable nanocomposite materials with these processes, our goal is to develop new classes of wearable systems with enhanced functionality and form factor. This research supports the realization of future technologies for high-density integration in circuits, devices, and displays.