Detection and characterization of resting state functional networks in squirrel monkey brain.

Cerebral cortex communications Pub Date : 2023-09-02 eCollection Date: 2023-01-01 DOI:10.1093/texcom/tgad018
Anirban Sengupta, Feng Wang, Arabinda Mishra, Jamie L Reed, Li Min Chen, John C Gore
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Abstract

Resting-state fMRI based on analyzing BOLD signals is widely used to derive functional networks in the brain and how they alter during disease or injury conditions. Resting-state networks can also be used to study brain functional connectomes across species, which provides insights into brain evolution. The squirrel monkey (SM) is a non-human primate (NHP) that is widely used as a preclinical model for experimental manipulations to understand the organization and functioning of the brain. We derived resting-state networks from the whole brain of anesthetized SMs using Independent Component Analysis of BOLD acquisitions. We detected 15 anatomically constrained resting-state networks localized in the cortical and subcortical regions as well as in the white-matter. Networks encompassing visual, somatosensory, executive control, sensorimotor, salience and default mode regions, and subcortical networks including the Hippocampus-Amygdala, thalamus, basal-ganglia and brainstem region correspond well with previously detected networks in humans and NHPs. The connectivity pattern between the networks also agrees well with previously reported seed-based resting-state connectivity of SM brain. This study demonstrates that SMs share remarkable homologous network organization with humans and other NHPs, thereby providing strong support for their suitability as a translational animal model for research and additional insight into brain evolution across species.

Abstract Image

Abstract Image

Abstract Image

松鼠猴大脑静息状态功能网络的检测与表征。
基于分析BOLD信号的静息状态fMRI被广泛用于推导大脑中的功能网络,以及它们在疾病或损伤条件下如何变化。静息状态网络也可用于研究不同物种的大脑功能连接体,从而深入了解大脑进化。松鼠猴(SM)是一种非人类灵长类动物(NHP),被广泛用作实验操作的临床前模型,以了解大脑的组织和功能。我们使用BOLD采集的独立成分分析从麻醉SM的整个大脑中推导出静息状态网络。我们检测到15个解剖学上受限的静息状态网络,分布在皮层和皮层下区域以及白质中。包括视觉、体感、执行控制、感觉运动、显著性和默认模式区域的网络,以及包括海马杏仁核、丘脑、基底神经节和脑干区域的皮层下网络,与先前在人类和NHP中检测到的网络非常一致。网络之间的连接模式也与先前报道的SM大脑基于种子的静息状态连接非常一致。这项研究表明,SM与人类和其他NHP具有显著的同源网络组织,从而为其作为转化动物模型的研究和对跨物种大脑进化的进一步深入了解提供了有力的支持。
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