Jinghua Li
Silicon Thin Film
The Ohio State University
Fontana Lab, 140 W 19th St, Columbus, OH 43210
Email: li.11017@osu.edu
Biography
ACADEMIC APPOINTMENTS 2019-present Assistant Professor, Department of Materials Science and Engineering Affiliated faculty, Chronic Brain Injury Program The Ohio State University, Columbus OH EDUCATION & TRAINING 2016-2019 Postdoctoral Fellow, Department of Materials Science and Engineering Northwestern University, Evanston IL (Advisor: Prof. John A. Rogers) 2011-2016 Ph.D., Department of Chemistry Duke University, Durham NC (Advisor: Prof. Jie Liu) 2007-2011 B.S. Biological Science, Shandong University, China RESEARCH INTERESTS Biosensing; bio-integrated electronics; low-dimensional materials & semiconductors; neural interfaces |
Abstract for Presentation
Advanced Thin-Film Materials and Electronics for High-Resolution and Chronically Stable Neural Interfaces
The human body, such as the brain, produces a wide range of biophysical and biochemical signals that contain important information about the health condition and the progression of various diseases. There are critical challenges, however, to efficiently capture the signals due to the rigid characteristics of conventional medical systems. To address this issue, the design of thin, soft and flexible electronics forms the basis of novel wearable and implantable biomedical devices for the diagnostics and treatment of brain injuries and other chronic neurodegenerative diseases with improved outcomes and reduced costs.
This talk will focus on the science and engineering of thin-film materials for recording and stimulation in the nervous system to extend the frontier of human healthcare. I will first introduce the design and innovation of Si nanomembrane as interface to the brain for flexible micro-electrocorticographic (μECoG) arrays with multidecade lifetimes under physiological conditions. The technology enables flexible, actively multiplexed μECoG electrodes for recording and stimulation in nervous systems with chronic stability, high sensitivity, and unprecedented level of spatiotemporal resolution. Together, these materials and electronics provide a realistic pathway to biomedical devices with biocompatibility, bioconformality and biostability for the applications in closed-loop neuromodulation and neuroscience research.
WELCOME TO CHINA TO ATTEND THE ICANS
23-26 August, Nanjing, China
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