Understanding how micro- and nanoscale conductive biomaterials can promote the regeneration of excitable tissues such as nerves and muscles.

Our work focuses on engineering biomimetic interfaces combining nanotopography and electrical conductivity to enhance neuronal adhesion, alignment, and maturation. These interfaces are designed to support long-term functional integration of excitable cells.

We investigate how conductive polymers (e.g., PEDOT:PSS) and bio-resorbable nanostructures interact with neural and muscle tissues to optimize bioelectronic communication and tissue repair.

Related Publications

• Synergy of nanotopography and electrical conductivity of PEDOT/PSS for enhanced neuronal development [Link to paper]
• Fabrication and characterization of bioresorbable, electroactive and highly regular nanomodulated cell interfaces. [Link to paper]
• Contactless magnetically responsive injectable hydrogel for aligned tissue regeneration[Link to paper]
• MXene-based Conductive Micropatterned Composites Promote Myogenic Differentiation of Muscle Cells - Small Structure 2026, in press