My research at the IMS laboratory, Bioelectronics group, focuses on modeling and designing bioelectronic interfaces. I combine computational models, electronic circuits and experimental instrumentation to study how electrical systems stimulate and measure living tissues.

Neural stimulation and dynamics

I investigate how electrode geometry, placement and stimulation waveforms shape neural responses. A particular interest is the use of kilohertz stimulation to control activity and improve selectivity, alongside conventional stimulation protocols.

Recent work explores intrafascicular stimulation, selective conduction block and neuronal dynamics under kilohertz stimulation. Computational work also examines control strategies for adaptive deep brain stimulation.

Physiological and supraphysiological frequency ranges in bioelectronic interfaces

Bioimpedance and instrumentation

A complementary direction uses electrical impedance to characterise tissues and electrode interfaces, and to investigate physiological activity. Projects include peripheral nerve electrical impedance tomography, cardiac impedance signal processing and configurable measurement platforms such as BIMMS.

Reproducible research

The NRV framework supports computational studies of peripheral nerve stimulation. I also coordinate Neuro Interface Lab, which brings together our collaborative research and open-source tools.

Explore recent publications, current and former PhD students, and open-science resources.