University of Central Florida Research Foundation Inc

Adam Rozman

Swaminathan Rajaraman

Avra Kundu

Jorge Manrique Castro

A high-throughput, three-dimensional microelectrode array for in vitro electrophysiological applications includes a 3D printed well plate having a top face and bottom face, and a plurality of culture wells formed on the top face of the well plate. Each culture well includes a plurality of vertical microchannels on the top face and microtroughs formed on the bottom face and communicating with the microchannels. A conductive paste fills the microtroughs and the microchannels and forms self-isolated microelectrodes in each culture well and conductive traces that communicate with the self-isolated microelectrodes.

3D printed, high-throughput microelectrode array

A method of forming a high-throughput, three-dimensional (3D) microelectrode array for in vitro electrophysiological applications includes 3D printing a well plate having a top face and bottom face. A plurality of culture well each includes a plurality of 3D printed, vertical microchannels and microtroughs communicating with the microchannels. The microtroughs and the microchannels are filled with a conductive paste to form self-isolated microelectrodes in each of the culture wells and conductive traces that communicate with the self-isolated microelectrodes.

Growing community of inventors

Oviedo, FL, United States of America

Adam Rozman