| Literature DB >> 28132830 |
Gunchul Shin1, Adrian M Gomez2, Ream Al-Hasani2, Yu Ra Jeong3, Jeonghyun Kim1, Zhaoqian Xie4, Anthony Banks1, Seung Min Lee1, Sang Youn Han5, Chul Jong Yoo6, Jong-Lam Lee6, Seung Hee Lee6, Jonas Kurniawan1, Jacob Tureb1, Zhongzhu Guo1, Jangyeol Yoon1, Sung-Il Park7, Sang Yun Bang8, Yoonho Nam1, Marie C Walicki2, Vijay K Samineni9, Aaron D Mickle9, Kunhyuk Lee1, Seung Yun Heo1, Jordan G McCall9, Taisong Pan10, Liang Wang11, Xue Feng12, Tae-Il Kim13, Jong Kyu Kim6, Yuhang Li14, Yonggang Huang15, Robert W Gereau16, Jeong Sook Ha17, Michael R Bruchas18, John A Rogers19.
Abstract
In vivo optogenetics provides unique, powerful capabilities in the dissection of neural circuits implicated in neuropsychiatric disorders. Conventional hardware for such studies, however, physically tethers the experimental animal to an external light source, limiting the range of possible experiments. Emerging wireless options offer important capabilities that avoid some of these limitations, but the current size, bulk, weight, and wireless area of coverage is often disadvantageous. Here, we present a simple but powerful setup based on wireless, near-field power transfer and miniaturized, thin, flexible optoelectronic implants, for complete optical control in a variety of behavioral paradigms. The devices combine subdermal magnetic coil antennas connected to microscale, injectable light-emitting diodes (LEDs), with the ability to operate at wavelengths ranging from UV to blue, green-yellow, and red. An external loop antenna allows robust, straightforward application in a multitude of behavioral apparatuses. The result is a readily mass-producible, user-friendly technology with broad potential for optogenetics applications.Entities:
Keywords: ChR2; Chrimson; LED; NAc; VTA; dopamine; near-field communication; optogenetics; reward; wireless
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Year: 2017 PMID: 28132830 PMCID: PMC5377903 DOI: 10.1016/j.neuron.2016.12.031
Source DB: PubMed Journal: Neuron ISSN: 0896-6273 Impact factor: 17.173