Overview

The Viventi Lab aims to develop flexible electronics to interface with the brain.  With high spatial and temporal bandwidth, micro-electrocorticography (μECoG) provides a high resolution interface with the brain by obtaining fine-scale structure over large areas of the cortex.  

Our goal is to make usable devices that are stable, repeatable and easy to build that we can both use in-house and share with the research community at-large to answer interesting questions in nueroscience.  To do this, our work is focused on several key areas:

 

uECoG Electrode Design, Fabrication, and Reliability

Chiang, C.-H., S. M. Won, A. L. Orsborn, K. J. Yu, M. Trumpis, B. Bent, C. Wang, Y. Xue, S. Min, V. Woods, C. Yu, B. H. Kim, S. B. Kim, R. Huq, J. Li, K. J. Seo, F. Vitale, A. Richardson, H. Fang, Y. Huang, K. Shepard, B. Pesaran, J. A. Rogers and J. Viventi (2020). "Development of a neural interface for high-definition, long-term recording in rodents and nonhuman primates." Science Translational Medicine 12(538): eaay4682.

 

Signal Analysis

 

Trumpis, M., C. H. Chiang, A. L. Orsborn, B. Bent, J. Li, J. A. Rogers, B. Pesaran, G. Cogan and J. Viventi (2021). "Sufficient sampling for kriging prediction of cortical potential in rat, monkey, and human microECoG." J Neural Eng 18(3).

 

Human Translation Research

 

Chiang, C. H., C. Wang, K. Barth, S. Rahimpour, M. Trumpis, S. Duraivel, I. Rachinskiy, A. Dubey, K. E. Wingel, M. Wong, N. S. Witham, T. Odell, V. Woods, B. Bent, W. Doyle, D. Friedman, E. Bihler, C. F. Reiche, D. G. Southwell, M. M. Haglund, A. H. Friedman, S. P. Lad, S. Devore, O. Devinsky, F. Solzbacher, B. Pesaran, G. Cogan and J. Viventi (2021). "Flexible, high-resolution thin-film electrodes for human and animal neural research." J Neural Eng 18(4).