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微流控与多电极阵列兼容的器官型切片培养方法。

Microfluidics and multielectrode array-compatible organotypic slice culture method.

作者信息

Berdichevsky Yevgeny, Sabolek Helen, Levine John B, Staley Kevin J, Yarmush Martin L

机构信息

Center for Engineering in Medicine, Department of Surgery, Harvard Medical School, Massachusetts General Hospital, Boston, MA, United States.

出版信息

J Neurosci Methods. 2009 Mar 30;178(1):59-64. doi: 10.1016/j.jneumeth.2008.11.016. Epub 2008 Nov 30.

Abstract

Organotypic brain slice cultures are used for a variety of molecular, electrophysiological, and imaging studies. However, the existing culture methods are difficult or expensive to apply in studies requiring long-term recordings with multielectrode arrays (MEAs). In this work, a novel method to maintain organotypic cultures of rodent hippocampus for several weeks on standard MEAs in an unmodified tissue culture incubator is described. Polydimethylsiloxane (Sylgard) mini-wells were used to stabilize organotypic cultures on glass and MEA surfaces. Hippocampus slices were successfully maintained within PDMS mini-wells for multiple weeks, with preserved pyramidal layer organization, connectivity, and activity. MEAs were used to record the development of spontaneous activity in an organotypic cultures for 4 weeks. This method is compatible with integration of microchannels into the culture substrate. Microchannels were incorporated into the mini-wells and applied to the guidance of axons originating within the slice, paving the way for studies of axonal sprouting using organotypic slices.

摘要

器官型脑片培养用于各种分子、电生理和成像研究。然而,现有的培养方法在需要使用多电极阵列(MEA)进行长期记录的研究中应用困难或成本高昂。在这项工作中,描述了一种在未改装的组织培养箱中,在标准MEA上维持啮齿动物海马体器官型培养数周的新方法。聚二甲基硅氧烷(Sylgard)微孔用于在玻璃和MEA表面稳定器官型培养。海马体切片在PDMS微孔内成功维持了数周,锥体细胞层组织、连接性和活性得以保留。MEA用于记录器官型培养中自发活动4周的发展情况。该方法与将微通道整合到培养基质中兼容。微通道被并入微孔并应用于引导切片内起源的轴突,为使用器官型切片研究轴突发芽铺平了道路。

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