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昆虫脑中整合学习和先天情绪的回路。

Circuits for integrating learned and innate valences in the insect brain.

机构信息

HHMI Janelia Research Campus, Richmond, United Kingdom.

Neurobiology Division, MRC Laboratory of Molecular Biology, Cambridge, United Kingdom.

出版信息

Elife. 2021 Nov 10;10:e62567. doi: 10.7554/eLife.62567.

DOI:10.7554/eLife.62567
PMID:34755599
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC8616581/
Abstract

Animal behavior is shaped both by evolution and by individual experience. Parallel brain pathways encode innate and learned valences of cues, but the way in which they are integrated during action-selection is not well understood. We used electron microscopy to comprehensively map with synaptic resolution all neurons downstream of all mushroom body (MB) output neurons (encoding learned valences) and characterized their patterns of interaction with lateral horn (LH) neurons (encoding innate valences) in larva. The connectome revealed multiple types that receive convergent MB and LH inputs. A subset of these receives excitatory input from positive-valence MB and LH pathways and inhibitory input from negative-valence MB pathways. We confirmed functional connectivity from LH and MB pathways and behavioral roles of two of these neurons. These neurons encode integrated odor value and bidirectionally regulate turning. Based on this, we speculate that learning could potentially skew the balance of excitation and inhibition onto these neurons and thereby modulate turning. Together, our study provides insights into the circuits that integrate learned and innate valences to modify behavior.

摘要

动物行为既受进化影响,也受个体经验影响。平行的大脑通路对线索的先天和后天的效价进行编码,但它们在动作选择过程中是如何整合的还不太清楚。我们使用电子显微镜以突触分辨率全面绘制了所有蘑菇体(MB)输出神经元(编码后天效价)下游的所有神经元,并在幼虫中描述了它们与侧角(LH)神经元(编码先天效价)相互作用的模式。连接组揭示了多种接收会聚 MB 和 LH 输入的类型。其中一部分从正效价 MB 和 LH 途径接收兴奋性输入,从负效价 MB 途径接收抑制性输入。我们证实了来自 LH 和 MB 途径的功能连接以及其中两个神经元的行为作用。这些神经元编码综合的气味值,并双向调节转向。基于这一点,我们推测学习可能会使这些神经元上的兴奋和抑制平衡发生倾斜,从而调节转向。总的来说,我们的研究为整合后天和先天效价以改变行为的回路提供了深入的了解。

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