Max Planck Institute of Molecular Physiology, Otto-Hahn-Str. 11, 44227, Dortmund, Germany.
Department of Chemistry, Umeå Centre for Microbial Research, Umeå University, 90187, Umeå, Sweden.
Chemistry. 2019 Sep 25;25(54):12452-12463. doi: 10.1002/chem.201900562. Epub 2019 Aug 13.
Light-inducible approaches provide a means to control biological systems with spatial and temporal resolution that is unmatched by traditional genetic perturbations. Recent developments of optogenetic and chemo-optogenetic systems for induced proximity in cells facilitate rapid and reversible manipulation of highly dynamic cellular processes and have become valuable tools in diverse biological applications. New expansions of the toolbox facilitate control of signal transduction, genome editing, "painting" patterns of active molecules onto cellular membranes, and light-induced cell cycle control. A combination of light- and chemically induced dimerization approaches have also seen interesting progress. Herein, an overview of optogenetic systems and emerging chemo-optogenetic systems is provided, and recent applications in tackling complex biological problems are discussed.
光诱导方法提供了一种以空间和时间分辨率控制生物系统的手段,这是传统遗传扰动无法比拟的。最近用于细胞内诱导接近的光遗传学和化学光遗传学系统的发展促进了高度动态细胞过程的快速和可逆操作,并在各种生物应用中成为有价值的工具。工具箱的新扩展有助于控制信号转导、基因组编辑、将活性分子的“图案”“绘制”到细胞膜上,以及光诱导细胞周期控制。光和化学诱导二聚化方法的组合也取得了有趣的进展。本文提供了光遗传学系统和新兴化学光遗传学系统的概述,并讨论了它们在解决复杂生物学问题方面的最新应用。