Cayleigh P. O'Hare

This paper develops a method to create bioelectronic interfaces using collagen and conducting polymers, enhancing biointegration and cell compatibility.

This paper introduces 3D printed bioelectronic scaffolds for impedance-based cytotoxicity monitoring in 3D cancer cell cultures, demonstrating their effectiveness in drug response assessment.

This paper develops PEDOT:PSS granular hydrogel microparticles that form conducting hydrogels with microporosity and dynamic mechanical properties, enabling extrusion, bioencapsulation, and electrophysiological monitoring.

This study develops 3D printed PEDOT:PSS hydrogel scaffolds with soft tissue-like stiffness to support cell viability and function in bioelectronic applications.