Dugué Guillaume P, Tricoire Ludovic
CNRS UMR 8197, Inserm U1024, IBENS S4.9, 46, rue d'Ulm, 75005 Paris, France.
CNRS UMR 8246, Inserm U1130, université Pierre et Marie Curie UM CR119, 9, quai Saint Bernard, 75005 Paris, France.
Med Sci (Paris). 2015 Mar;31(3):291-303. doi: 10.1051/medsci/20153103015. Epub 2015 Apr 8.
Numerous achievements in biology have resulted from the evolution of biophotonics, a general term describing the use of light in the study of living systems. Over the last fifteen years, biophotonics has progressively blended with molecular genetics to give rise to optogenetics, a set of techniques enabling the functional study of genetically-defined cellular populations, compartments or processes with optical methods. In neuroscience, optogenetics allows real-time monitoring and control of the activity of specific neuronal populations in a wide range of animal models. This technical breakthrough provides a new level of sophistication in experimental approaches in the field of fundamental neuroscience, significantly enhancing our ability to understand the complexity of neuronal circuits.
生物光子学的发展在生物学领域取得了众多成果,生物光子学是一个通用术语,用于描述在生命系统研究中对光的利用。在过去的十五年里,生物光子学已逐渐与分子遗传学融合,催生了光遗传学,这是一套能够通过光学方法对基因定义的细胞群体、区室或过程进行功能研究的技术。在神经科学中,光遗传学可对多种动物模型中特定神经元群体的活动进行实时监测和控制。这一技术突破为基础神经科学领域的实验方法带来了新的精密水平,显著增强了我们理解神经元回路复杂性的能力。