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直流刺激在细胞培养系统和脑片中的应用——评估神经元可塑性和神经调节机制的新方法:现状。

Direct Current Stimulation in Cell Culture Systems and Brain Slices-New Approaches for Mechanistic Evaluation of Neuronal Plasticity and Neuromodulation: State of the Art.

机构信息

IfADo-Leibniz Research Center for Working Environment and Human Factors, 44139 Dortmund, Germany.

出版信息

Cells. 2021 Dec 19;10(12):3583. doi: 10.3390/cells10123583.

Abstract

Non-invasive direct current stimulation (DCS) of the human brain induces neuronal plasticity and alters plasticity-related cognition and behavior. Numerous basic animal research studies focusing on molecular and cellular targets of DCS have been published. In vivo, ex vivo, and in vitro models enhanced knowledge about mechanistic foundations of DCS effects. Our review identified 451 papers using a PRISMA-based search strategy. Only a minority of these papers used cell culture or brain slice experiments with DCS paradigms comparable to those applied in humans. Most of the studies were performed in brain slices (9 papers), whereas cell culture experiments (2 papers) were only rarely conducted. These ex vivo and in vitro approaches underline the importance of cell and electric field orientation, cell morphology, cell location within populations, stimulation duration (acute, prolonged, chronic), and molecular changes, such as Ca2+-dependent intracellular signaling pathways, for the effects of DC stimulation. The reviewed studies help to clarify and confirm basic mechanisms of this intervention. However, the potential of in vitro studies has not been fully exploited and a more systematic combination of rodent models, ex vivo, and cellular approaches might provide a better insight into the neurophysiological changes caused by tDCS.

摘要

非侵入性直流电刺激(DCS)人脑可诱导神经元可塑性,并改变与可塑性相关的认知和行为。已经发表了许多专注于 DCS 分子和细胞靶点的基础动物研究。体内、体外和体外模型增强了对 DCS 效应机制基础的了解。我们的综述使用基于 PRISMA 的搜索策略确定了 451 篇论文。这些论文中只有少数使用了与人类应用的 DCS 范式相当的细胞培养或脑片实验。大多数研究是在脑片上进行的(9 篇论文),而细胞培养实验(2 篇论文)则很少进行。这些离体和体外方法强调了细胞和电场方向、细胞形态、细胞在群体中的位置、刺激持续时间(急性、延长、慢性)以及 Ca2+依赖性细胞内信号通路等分子变化对 DC 刺激效果的重要性。综述中的研究有助于阐明和证实这种干预的基本机制。然而,体外研究的潜力尚未得到充分利用,更系统地结合啮齿动物模型、离体和细胞方法可能会更深入地了解 tDCS 引起的神经生理变化。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/bb7f/8700319/be360aec2fb6/cells-10-03583-g001.jpg

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