Maxime Feyerick

  • Neurostimulator design in CMOS
  • HIgh-Voltage circuit techniques in Low-Voltage CMOS
  • Near-field communication techniques for biomedical applications
  • Low-power mixed signal design
Maxime Feyerick
Maxime Feyerick
Phd student
Biomedical circuits and sensor interfaces
+32 16 372143

Current research topic

Career overview

Maxime Feyerick was born in Leuven, Belgium in 1995.

In 2018, he received the M.Sc. degree in electrical engineering from the KU Leuven, Belgium. The subject of his master’s thesis was the design of low-energy digital logic cells for always-on systems targeting kHz-range operating frequencies.

Currently, he is working as a research assistant at the MICAS research group under the guidance of prof. dr. ir. Wim Dehaene towards a PhD degree on the IC design for high-resolution neurostimulator design for visual prostheses. Similar to a cochlear implant, a visual prosthesis promises to restore vision to the blind. The emphasis on the circuit level lies in creating compact stimulator channels that are nevertheless high-voltage compatible with the high-impedance micro-electrodes in such application. This allows to integrate many channels in one system, providing the thousands of channels projected to be required for useful image recreation.

Publications

Dense, 11 V-tolerant, Balanced Stimulator IC with Digital Time-domain Calibration for < /100nA Error Maxime Feyerick and Wim Dehaene · Article · Jun 19. 2023 IEEE Transactions On Biomedical Circuits And Systems; 2023; pp.
An 11 V-tolerant, high-density neurostimulator using time-domain calibration in 65 nm CMOS Maxime Feyerick and Wim Dehaene · Conference Proceeding · Nov 16. 2022 2022 IEEE Biomedical Circuits and Systems Conference (BioCAS) Proceedings; 2022; pp. 429 - 433
Exploration and Design of Low-Energy Logic Cells for 1 kHz Always-on Systems Maxime Feyerick, Jaro De Roose, and Marian Verhelst · Conference Proceeding · Jan 1. 2019 Proceedings of the 2019 Design, Automation & Test in Europe Conference & Exhibition (DATE; 2019; pp. 1697 - 1702

Teaching

  • Elektrische netwerken (H01Z8A) in 1st bachelor: guiding students in labs specifically designed to let them understand the principles of circuits analysis in a hands-on fashion 
  • Biomedical measurements and stimulation (H03H8A) at 1st master level: guiding exercise sessions on analog electronics in a biomedical context.