High-performance genetically targetable optical neural silencing by light-driven proton pumps
Brian Y. Chow,
Xue Han,
Allison S. Dobry,
Xiaofeng Qian,
Amy S. Chuong,
Mingjie Li,
Michael A. Henninger,
Gabriel M. Belfort,
Yingxi Lin,
Patrick E. Monahan and
Edward S. Boyden ()
Additional contact information
Brian Y. Chow: The MIT Media Laboratory, Synthetic Neurobiology Group
Xue Han: The MIT Media Laboratory, Synthetic Neurobiology Group
Allison S. Dobry: The MIT Media Laboratory, Synthetic Neurobiology Group
Xiaofeng Qian: The MIT Media Laboratory, Synthetic Neurobiology Group
Amy S. Chuong: The MIT Media Laboratory, Synthetic Neurobiology Group
Mingjie Li: The MIT Media Laboratory, Synthetic Neurobiology Group
Michael A. Henninger: The MIT Media Laboratory, Synthetic Neurobiology Group
Gabriel M. Belfort: Massachusetts Institute of Technology, Cambridge, Massachusetts 02139, USA
Yingxi Lin: Massachusetts Institute of Technology, Cambridge, Massachusetts 02139, USA
Patrick E. Monahan: The MIT Media Laboratory, Synthetic Neurobiology Group
Edward S. Boyden: The MIT Media Laboratory, Synthetic Neurobiology Group
Nature, 2010, vol. 463, issue 7277, 98-102
Abstract:
Light switch for neural circuits The experimental use of microbial opsins — light-sensitive ion channels — has ushered in a revolution in neuroscience, as they make it possible to modulate the activity of genetically targeted neurons in response to exogenous light. Now, Ed Boyden and colleagues have screened archaebacteria, bacteria, plants and fungi for opsins with novel properties and have found a fundamentally new mechanism for neural control: light-driven proton pumping. Although protons are not used natively as charge carriers by neural systems, light-driven proton pumping by archaerhodopsin-3 from Halorubrum sodomense mediates powerful neural silencing in response to light. And a proton pump from the fungus Leptosphaeria maculans enables neural silencing by blue light. The use of these reagents will facilitate the shutdown of neural circuits with light as a tool for studying the role of neural circuits in behaviour and pathology.
Date: 2010
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DOI: 10.1038/nature08652
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