Dr. Viventi’s research uses flexible electronics to create new technology for interfacing with the brain at high resolution over large areas. These new tools can help diagnose and treat neurological disorders such as epilepsy, and help improve the performance of brain machine interfaces.
I am an electrical engineer by training, with a fondness for timeseries analysis, inverse problems, machine learning, and open source science software. As a student of timeseries, I stumbled into electrophysiology over a decade ago and have never yet gotten over the wonder of the brain's... More
My interest in the field of neural electronics began as an undergraduate at Wake Forest University researching organic materials for use in thin-film transistors. This work introduced me to the many applications of flexible electronics, and I became especially fascinated by their use in neural... More
Being trained in electrical engineering, I got interested in neuroscience when I had an opportunity to attend deep brain stimulation surgeries at the University of Michigan. Further, examining neural signals in Parkinson patients for DBS targeting has motivated me to pursue my Ph.D... More
I have always been interested in how the brain functions. I became involved with the brain in a research setting at the University of Michigan Depression and Anxiety clinic where I worked to develop a computer training to help treat Social Anxiety Disorder and PTSD. Although I have yet to find... More
Having both great interest in the human nervous system and in designing solutions within the medical field, I found neural engineering as a great opportunity to combine my passions. Flexible Electronics and Brain Interfaces combine disciplines like electronics, materials, neuroscience and signal... More
I am currently exploring creating high bandwidth, novel neural interfaces in the Viventi lab. I started my career as an undergraduate researcher in an organ-in-a-chips lab modeling the small intestine to characterize drug toxicity. During my undergraduate studies I also worked in an inorganic... More
My work focuses on designing novel electrode geometries and increasing the spatial density of electrode contacts of our flexible µECoG electrodes to obtain higher spatial resolution of brain activity. I am also exploring the use of materials such as Liquid Crystal Polymer and... More