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计时的神经解剖学和神经化学基础。

Neuroanatomical and neurochemical substrates of timing.

机构信息

Laboratoire de Neurobiologie de la Cognition, Pole 3C, Université de Provence and CNRS, Marseille, France.

出版信息

Neuropsychopharmacology. 2011 Jan;36(1):3-25. doi: 10.1038/npp.2010.113. Epub 2010 Jul 28.

Abstract

We all have a sense of time. Yet, there are no sensory receptors specifically dedicated for perceiving time. It is an almost uniquely intangible sensation: we cannot see time in the way that we see color, shape, or even location. So how is time represented in the brain? We explore the neural substrates of metrical representations of time such as duration estimation (explicit timing) or temporal expectation (implicit timing). Basal ganglia (BG), supplementary motor area, cerebellum, and prefrontal cortex have all been linked to the explicit estimation of duration. However, each region may have a functionally discrete role and will be differentially implicated depending upon task context. Among these, the dorsal striatum of the BG and, more specifically, its ascending nigrostriatal dopaminergic pathway seems to be the most crucial of these regions, as shown by converging functional neuroimaging, neuropsychological, and psychopharmacological investigations in humans, as well as lesion and pharmacological studies in animals. Moreover, neuronal firing rates in both striatal and interconnected frontal areas vary as a function of duration, suggesting a neurophysiological mechanism for the representation of time in the brain, with the excitatory-inhibitory balance of interactions among distinct subtypes of striatal neuron serving to fine-tune temporal accuracy and precision.

摘要

我们都有时间感。然而,并没有专门的感觉受体来感知时间。这是一种几乎完全无形的感觉:我们无法像看到颜色、形状甚至位置那样看到时间。那么,大脑是如何表示时间的呢?我们探索了时间度量表示的神经基质,例如持续时间估计(显式计时)或时间预期(隐式计时)。基底神经节(BG)、补充运动区、小脑和前额叶皮层都与持续时间的显式估计有关。然而,每个区域可能具有功能上的离散作用,并且会根据任务上下文而有不同的牵连。在这些区域中,BG 的背侧纹状体,更具体地说是其上升的黑质纹状体多巴胺能通路,似乎是这些区域中最重要的,这一点在人类的功能神经影像学、神经心理学和精神药理学研究中以及动物的损伤和药理学研究中得到了证实。此外,纹状体和相互连接的额区中的神经元放电率随时间而变化,这表明大脑中时间表示的神经生理机制,不同类型的纹状体神经元之间的相互作用的兴奋-抑制平衡有助于微调时间的准确性和精度。

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