معرفی
Dr Edward Tarte is a Senior Lecturer and Deputy Head of Education in the School of Engineering at the University of Birmingham, UK, where he is affiliated with the Department of Electronic, Electrical and Systems Engineering. He has been a key figure in biomedical electrical engineering research since joining the university in 2005 as a University Research Fellow.
Education:
- BSc (Hons) in Physics, University of Bristol, 1988
- PhD in Physics, University of Cambridge, 1993
Edward Tarte's research focuses on the application of electrical engineering and microfabrication techniques to biomedical science, particularly in developing novel sensors and devices for detecting bioelectric signals. His work spans the development of microfabricated electrode arrays, flexible neural interfaces such as the Spiral Peripheral Nerve Interface (SPNI), and the use of nanotechnology to enhance biocompatibility and signal detection. He also maintains a strong interest in superconducting devices, including SQUIDs for biomagnetic detection and Josephson junctions.
His recent publications highlight a consistent focus on neural interfaces, microfabrication, flexible electronics, and electrochemical optimization of neural implants. These works reflect interdisciplinary efforts in neuroscience, materials science, and biomedical engineering, often in collaboration with institutions across Europe.
Scientific Awards:
- Fellow of the Higher Education Academy (2012)
- Fellow of the Institute of Physics (FInstP, 2008)
Edward Tarte has been funded by prestigious bodies including the EPSRC, European Union (Framework 5 and 7), Royal Society, and UK Ministry of Defence. He actively supervises PhD and Master's students and contributes to undergraduate and postgraduate education, teaching courses in engineering mathematics, analogue electronics, and project supervision. He is also a member of the EPSRC Review College and has co-authored the European Roadmap on Superconductive Electronics. His outreach includes giving talks to school groups on electricity and magnetism.
He leads a research team focused on developing next-generation neural interfaces and is involved in modeling electrodynamic behavior of bioelectric sources. His lab integrates microfabrication, materials science, and neuroscience to advance prosthetic and regenerative technologies.
