Genetically encoded fluorescent sensors of membrane potential.

Brain cell biology Pub Date : 2008-08-01 Epub Date: 2008-08-05 DOI:10.1007/s11068-008-9026-7
B J Baker, H Mutoh, D Dimitrov, W Akemann, A Perron, Y Iwamoto, L Jin, L B Cohen, E Y Isacoff, V A Pieribone, T Hughes, T Knöpfel
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Abstract

Imaging activity of neurons in intact brain tissue was conceived several decades ago and, after many years of development, voltage-sensitive dyes now offer the highest spatial and temporal resolution for imaging neuronal functions in the living brain. Further progress in this field is expected from the emergent development of genetically encoded fluorescent sensors of membrane potential. These fluorescent protein (FP) voltage sensors overcome the drawbacks of organic voltage sensitive dyes such as non-specificity of cell staining and the low accessibility of the dye to some cell types. In a transgenic animal, a genetically encoded sensor could in principle be expressed specifically in any cell type and would have the advantage of staining only the cell population determined by the specificity of the promoter used to drive expression. Here we critically review the current status of these developments.

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基因编码的膜电位荧光传感器。
几十年前,人们就开始设想对完整脑组织中神经元的活动进行成像,经过多年的发展,电压敏感染料现在已能提供最高的空间和时间分辨率,对活体大脑中的神经元功能进行成像。膜电位基因编码荧光传感器的出现有望在这一领域取得进一步进展。这些荧光蛋白(FP)电压传感器克服了有机电压敏感染料的缺点,如细胞染色的非特异性和染料对某些类型细胞的低可及性。在转基因动物中,基因编码的传感器原则上可以在任何细胞类型中特异表达,其优点是只对用于驱动表达的启动子特异性所决定的细胞群进行染色。在此,我们对这些发展的现状进行了认真的回顾。
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Editorial: Hello, goodbye. Imaging activity of neuronal populations with new long-wavelength voltage-sensitive dyes. Differences in c-jun and nNOS expression levels in motoneurons following different kinds of axonal injury in adult rats. Direct interaction of SNARE complex binding protein synaphin/complexin with calcium sensor synaptotagmin 1 O-GlcNAc modification of radial glial vimentin filaments in the developing chick brain
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