Culturing cells for life: innovative approaches in macroscopic and microfluidic cultures, with an emphasis on stem cells

IF 4.1 Q2 MATERIALS SCIENCE, MULTIDISCIPLINARY Frontiers in Nanotechnology Pub Date : 2023-09-29 DOI:10.3389/fnano.2023.1264498
Simona Badilescu, Subhathirai Subramaniyan Parimalam, Muthukumaran Packirisamy
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Abstract

In 2006, Whitesides, writing about microfluidics, said that microfluidics is in early adolescence and it is not yet clear how it will develop. Today, almost 20 years later, microfluidics became a fully developed, highly sophisticated, multidisciplinary field that had entirely honoured its early promise. Its strength stems from the knowledge and know-how, coming from multiple disciplines such as physics of fluids, engineering, and microfabrication in the beginning, followed, more recently, by cell biological research, in full bloom nowadays. In microfluidic devices, the environment of cells such as chemical and mechanical gradients can be reproduced, making biological studies even more compelling. The red thread of this review paper follows the new insights and discoveries in both traditional macro- and microfluidic cell culture brought into the cell biology field, especially in the culture of stem cells, filled with promise in the field of regenerative medicine. Microfluidic devices provide an environment that is much closer to that of in vivo cell culture than the conventional culture platforms, where large amounts of cells are cultured and the environment of individual cells cannot be distinguished. The convenience of live cell imaging, portability, and the integration of sensors to precisely, control various parameters, has expanded cell biologists’ arsenal In addition, microfluidic devices, integrated with different functionalities, that is, the automated cell culture systems, will be discussed as well.
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培养生命细胞:宏观和微流体培养的创新方法,重点是干细胞
2006年,Whitesides在一篇关于微流控的文章中说,微流控还处于青春期早期,它将如何发展还不清楚。近20年后的今天,微流控已成为一个完全成熟、高度复杂的多学科领域,并完全兑现了其早期的承诺。它的实力源于知识和诀窍,来自多个学科,如流体物理学、工程学和微制造,然后是最近的细胞生物学研究,现在正在蓬勃发展。在微流体装置中,细胞的环境,如化学和机械梯度,可以被复制,使生物学研究更加引人注目。本文的主线是将传统的宏流体和微流体细胞培养的新见解和新发现带入细胞生物学领域,特别是干细胞的培养,在再生医学领域充满了希望。与传统的培养平台相比,微流控装置提供了一个更接近于体内细胞培养的环境,在传统的培养平台中,大量的细胞被培养,单个细胞的环境无法区分。活细胞成像的便利性,便携性,以及集成传感器以精确控制各种参数,已经扩展了细胞生物学家的武器库。此外,集成了不同功能的微流体装置,即自动化细胞培养系统,也将被讨论。
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来源期刊
Frontiers in Nanotechnology
Frontiers in Nanotechnology Engineering-Electrical and Electronic Engineering
CiteScore
7.10
自引率
0.00%
发文量
96
审稿时长
13 weeks
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