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Compartmentalized Devices as Tools for Investigation of Human Brain Network Dynamics

机译:划分装置作为人脑网络动态调查的工具

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Neuropsychiatric disorders have traditionally been difficult to study due to the complexity of the human brain and limited availability of human tissue. Induced pluripotent stem (iPS) cells provide a promising avenue to further our understanding of human disease mechanisms, but traditional 2D cell cultures can only provide a limited view of the neural circuits. To better model complex brain neurocircuitry, compartmentalized culturing systems and 3D organoids have been developed. Early compartmentalized devices demonstrated how neuronal cell bodies can be isolated both physically and chemically from neurites. Soft lithographic approaches have advanced this approach and offer the tools to construct novel model platforms, enabling circuit-level studies of disease, which can accelerate mechanistic studies and drug candidate screening. In this review, we describe some of the common technologies used to develop such systems and discuss how these lithographic techniques have been used to advance our understanding of neuropsychiatric disease. Finally, we address other in vitro model platforms such as 3D culture systems and organoids and compare these models with compartmentalized models. We ask important questions regarding how we can further harness iPS cells in these engineered culture systems for the development of improved in vitro models. Developmental Dynamics 248:65-77, 2019. (c) 2018 Wiley Periodicals, Inc.
机译:由于人脑的复杂性和人体组织的有限可用性,神经精神病学疾病传统上难以研究。诱导多能干(IPS)细胞提供了一个有希望的途径,以进一步了解我们对人类疾病机制的理解,但传统的2D细胞培养物只能提供神经电路的有限视图。为了更好的模型复杂的脑神经舒,已经开发了划分的培养系统和3D细胞体。早期的分区化器件证明了神经元细胞体如何可以物理和化学从神经牙体分离。柔和的光刻方法已经推进了这种方法,并提供了构建新型模型平台的工具,使疾病的电路级研究能够加速机械研究和药物候选筛选。在这篇综述中,我们描述了用于开发这种系统的一些常见技术,并讨论这些光刻技术如何用于推进我们对神经精神疾病的理解。最后,我们解决了其他体外模型平台,如3D培养系统和有机体,并将这些模型与舱室化模型进行比较。我们提出了关于如何在这些工程化培养系统中进一步利用IPS细胞的重要问题,以便于改进的体外模型。发展动力学248:65-77,2019。(c)2018 Wiley期刊,Inc。

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