M. M. Maharbiz

This study develops a smart bone plate using electrical impedance spectroscopy to monitor fracture healing in rabbits, showing strong correlations between impedance measurements and traditional healing metrics.

This paper introduces a wireless, minimally-invasive deep tissue oxygen monitoring system that provides continuous real-time data from centimeter-scale depths in a sheep model.

This paper reviews ceramic materials and thin film processing in neural implant packaging, aiming to improve reliability and miniaturization for long-term implants.

This paper evaluates methods for acoustic energy coupling to ceramic packages for implantable medical devices, finding bulk modes are more effective than flexural modes for energy transfer.

The paper introduces a MEMS-actuated carbon fiber microelectrode that inserts with minimal biological response, enabling neural signal recording in a brain phantom.

This paper introduces a neural probe design with compliant whiskers to reduce gliosis-induced recording degradation in chronic implants.

The paper uses microscale sensors in mouse fracture models to track healing via electrical impedance measurements, showing differences between proper and poor healing and validating clinical translation.

This paper introduces a high-density carbon fiber neural recording array that overcomes performance degradation and inflammation issues, achieving four times the density of existing one-dimensional arrays.