How microtechnologies enable organs-on-a-chip

E. Verpoorte, P. Oomen, M. Skolimowski, P. Mulder, P. V. van Midwoud, V. Starokozhko, M. Merema, G. Molema, G. Groothuis
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引用次数: 2

Abstract

Engineering cellular microenvironments that more accurately reflect the in vivo situation is now recognized as being crucial for the improvement of the in vitro viability and in vivo-like function of cells or tissues. Microfluidic technologies have been increasingly applied since the late 1990's for this purpose, with a growing number of examples of perfused cell and tissue cultures in microfluidic chambers and channels. More recently, additional microfabricated features have been implemented in microfluidic structures to achieve 3-D cell culture systems which mimic not only in vivo fluid flows, but also the structure, transport, and mechanical properties of tissue in, for example, the lung or the intestine. The ultimate challenge becomes the combination of different organ functions into single, linked-compartment devices - the body-on-the-chip.
微技术如何实现器官芯片
更准确地反映体内情况的工程细胞微环境现在被认为是提高细胞或组织的体外生存能力和体内样功能的关键。自20世纪90年代末以来,微流控技术已经越来越多地应用于这一目的,在微流控室和通道中灌注细胞和组织培养的例子越来越多。最近,在微流体结构中实现了额外的微制造功能,以实现三维细胞培养系统,该系统不仅模拟体内流体流动,还模拟组织的结构、运输和机械特性,例如肺或肠。最终的挑战是将不同的器官功能组合成单个的、连接的隔室装置——芯片上的身体。
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