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苍蝇如何感知运动

How Flies See Motion.

机构信息

Max Planck Institute for Biological Intelligence, Martinsried, Germany; email:

出版信息

Annu Rev Neurosci. 2023 Jul 10;46:17-37. doi: 10.1146/annurev-neuro-080422-111929.

Abstract

How neurons detect the direction of motion is a prime example of neural computation: Motion vision is found in the visual systems of virtually all sighted animals, it is important for survival, and it requires interesting computations with well-defined linear and nonlinear processing steps-yet the whole process is of moderate complexity. The genetic methods available in the fruit fly and the charting of a connectome of its visual system have led to rapid progress and unprecedented detail in our understanding of how neurons compute the direction of motion in this organism. The picture that emerged incorporates not only the identity, morphology, and synaptic connectivity of each neuron involved but also its neurotransmitters, its receptors, and their subcellular localization. Together with the neurons' membrane potential responses to visual stimulation, this information provides the basis for a biophysically realistic model of the circuit that computes the direction of visual motion.

摘要

神经元如何检测运动方向是神经计算的一个主要范例

运动视觉存在于几乎所有有视力的动物的视觉系统中,它对生存很重要,并且需要有趣的计算,具有明确的线性和非线性处理步骤——然而整个过程的复杂性适中。在果蝇中可用的遗传方法,以及对其视觉系统的连接组图的绘制,导致了我们对该生物中神经元如何计算运动方向的理解取得了快速进展和前所未有的细节。所呈现的图片不仅包含了每个参与神经元的身份、形态和突触连接,还包含了它们的神经递质、受体及其亚细胞定位。与神经元对视觉刺激的膜电位反应一起,这些信息为计算视觉运动方向的电路的生物物理现实模型提供了基础。

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