We work on biocompatible, functional materials/structures that maintain their electrical and mechanical properties under deformation – such as stretching, bending, and twisting. This ensures stable, high-fidelity bidirectional communication with biological tissues.
We develop interfaces that achieve seamless mechanical and electrical contact with soft, dynamic tissues. This conformality is essential for precision signal recording and efficient therapeutic modulation, minimizing signal loss and maximizing biocompatibility.
We focus on system-level integration to assemble functional modules into robust, soft hybrid electronics. This involves creating reliable, deformation-resistant interconnects and developing biofluid-resistant encapsulation strategies, ensuring long-term stability and consistent performance in dynamic biological environments.
We work on biocompatible, functional materials/structures that maintain their electrical and mechanical properties under deformation – such as stretching, bending, and twisting. This ensures stable, high-fidelity bidirectional communication with biological tissues.
We develop interfaces that achieve seamless mechanical and electrical contact with soft, dynamic tissues. This conformality is essential for precision signal recording and efficient therapeutic modulation, minimizing signal loss and maximizing biocompatibility.
We focus on system-level integration to assemble functional modules into robust, soft hybrid electronics. This involves creating reliable, deformation-resistant interconnects and developing biofluid-resistant encapsulation strategies, ensuring long-term stability and consistent performance in dynamic biological environments.