The brain is an incredibly complex system composed of billions of neurons that interact intricately. Understanding how the brain performs its cognitive functions necessitates capturing network activity at a single-cell level across multiple brain areas. Traditional methods for interfacing with the brain often face limitations in temporal resolution, biocompatibility, or the ability to engage deep brain regions. To address these challenges, we have developed Ultra-Flexible Tentacle Electrodes (UFTEs), which are fibers one order of magnitude smaller than human hair (2.4 µm x 7 µm cross-sectional area). These innovative electrodes enable the recording of single-unit activity from multiple brain regions in freely-moving rodents, offering nearly year-long stability. Unlike conventional stiff electrodes, UFTEs are not recognized by the brain's immune system, providing a superior signal-to-noise ratio when compared to state-of-the-art flexible electrodes (Yasar & Gombkoto et al., Nature Communications, 2024).
Although we have demonstrated the in vivo validation of UFTEs, additional steps are necessary to facilitate their widespread adoption as an advanced research tool within the neuroscience community. We have received a project grant from Innosuisse to make UFTEs more user-friendly and scalable, enhance their multimodal recording and stimulation capabilities, and adapt them for non-human primate studies. Our ultimate goal is to bring these UFTEs to market as a cutting-edge research tool.
This is a 1.5-year position beginning in April 2026 (exact start date to be agreed upon). Follow-up positions may be available based on interest and funding.
If you are interested in this position, please apply online using the form below.
Only applications matching the job profile will be considered. For further information about our department, please visit our website. For any questions regarding the position, kindly reach out to Dr. Tansel Baran Yasar at yasart@ethz.ch.
Location : Zürich
Country : Switzerland