Deisseroth Karl
Departments of Bioengineering and of Psychiatry and Behavioral Sciences and the Howard Hughes Medical Institute, Stanford University, Stanford, California, USA.
Nat Neurosci. 2015 Sep;18(9):1213-25. doi: 10.1038/nn.4091.
Over the past 10 years, the development and convergence of microbial opsin engineering, modular genetic methods for cell-type targeting and optical strategies for guiding light through tissue have enabled versatile optical control of defined cells in living systems, defining modern optogenetics. Despite widespread recognition of the importance of spatiotemporally precise causal control over cellular signaling, for nearly the first half (2005-2009) of this 10-year period, as optogenetics was being created, there were difficulties in implementation, few publications and limited biological findings. In contrast, the ensuing years have witnessed a substantial acceleration in the application domain, with the publication of thousands of discoveries and insights into the function of nervous systems and beyond. This Historical Commentary reflects on the scientific landscape of this decade-long transition.
在过去十年中,微生物视蛋白工程、用于细胞类型靶向的模块化遗传方法以及引导光穿过组织的光学策略的发展与融合,实现了对活体系统中特定细胞的多功能光学控制,从而定义了现代光遗传学。尽管人们普遍认识到对细胞信号进行时空精确因果控制的重要性,但在这十年的近前半期(2005 - 2009年),随着光遗传学的创立,实施过程中存在困难,出版物较少,生物学发现也有限。相比之下,在随后的几年里,应用领域有了大幅加速发展,发表了数千项关于神经系统及其他领域功能的发现和见解。这篇历史评论回顾了这长达十年的转变过程中的科学概况。