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腹侧纹状体中的与奖励相关的伽马振荡在区域上是分化的,并调节局部放电活动。

Reward-associated gamma oscillations in ventral striatum are regionally differentiated and modulate local firing activity.

机构信息

Department of Cognitive and Systems Neuroscience, Swammerdam Institute for Life Sciences, University of Amsterdam, Science Park 904, 1098 XH, Amsterdam, The Netherlands.

出版信息

J Neurophysiol. 2010 Mar;103(3):1658-72. doi: 10.1152/jn.00432.2009. Epub 2010 Jan 20.

DOI:10.1152/jn.00432.2009
PMID:20089824
Abstract

Oscillations of local field potentials (LFPs) in the gamma range are found in many brain regions and are supposed to support the temporal organization of cognitive, perceptual, and motor functions. Even though gamma oscillations have also been observed in ventral striatum, one of the brain's most important structures for motivated behavior and reward processing, their specific function during ongoing behavior is unknown. Using a movable tetrode array, we recorded LFPs and activity of neural ensembles in the ventral striatum of rats performing a reward-collection task. Rats were running along a triangle track and in each round collected one of three different types of rewards. The gamma power of LFPs on subsets of tetrodes was modulated by reward-site visits, discriminated between reward types, between baitedness of reward locations and was different before versus after arrival at a reward site. Many single units in ventral striatum phase-locked their discharge pattern to the gamma oscillations of the LFPs. Phase-locking occurred more often in reward-related than in reward-unrelated neurons and LFPs. A substantial number of simultaneously recorded LFPs correlated poorly with each other in terms of gamma rhythmicity, indicating that the expression of gamma activity was heterogeneous and regionally differentiated. The orchestration of LFPs and single-unit activity by way of gamma rhythmicity sheds light on the functional architecture of the ventral striatum and the temporal coordination of ventral striatal activity for modulating downstream areas and regulating synaptic plasticity.

摘要

局部场电位 (LFPs) 在伽马范围内的振荡在许多大脑区域中都有发现,被认为支持认知、感知和运动功能的时间组织。尽管腹侧纹状体也观察到了伽马振荡,这是大脑中对动机行为和奖励处理最重要的结构之一,但它们在持续行为中的特定功能尚不清楚。使用可移动的四极管阵列,我们记录了大鼠在执行奖励收集任务时腹侧纹状体的 LFPs 和神经集合体的活动。大鼠沿着三角形轨道运行,每轮收集三种不同类型的奖励之一。LFPs 的子集上的伽马功率调制了奖励地点的访问,区分了奖励类型,区分了奖励位置的诱饵性,并且在到达奖励地点之前和之后是不同的。腹侧纹状体中的许多单个单元将其放电模式与 LFPs 的伽马振荡锁定。在与奖励相关的神经元和 LFPs 中,锁定发生的频率比在与奖励无关的神经元和 LFPs 中更高。大量同时记录的 LFPs 在伽马节律性方面彼此之间相关性较差,表明伽马活动的表达具有异质性和区域分化。LFPs 和单细胞活动通过伽马节律性的协调,揭示了腹侧纹状体的功能结构以及腹侧纹状体活动对调节下游区域和调节突触可塑性的时间协调。

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