Castiaux Andre D, Spence Dana M, Martin R Scott
Department of Chemistry, Saint Louis University, 3501 Laclede Ave., St. Louis, MO 63103.
Department of Biomedical Engineering, Institute for Quantitative Health Science & Engineering, Michigan State University, East Lansing, MI, 48824.
Anal Methods. 2019 Sep 7;11(33):4220-4232. doi: 10.1039/c9ay01328h. Epub 2019 Aug 6.
A review with 105 references that analyzes the emerging research area of 3D cell culture in microfluidic platforms with integrated detection schemes. Over the last several decades a central focus of cell culture has been the development of better mimics. This has led to the evolution from planar cell culture to cell culture on 3D scaffolds, and the incorporation of cell scaffolds into microfluidic devices. Specifically, this review explores the incorporation of suspension culture, hydrogels scaffolds, paper-based scaffolds, and fiber-based scaffolds into microfluidic platforms. In order to decrease analysis time, simplify sample preparation, monitor key signaling pathways involved in cell-to-cell communication or cell growth, and combat the limitations of sample volume/ dilution seen in traditional assays, researchers have also started to focus on integrating detection schemes into the cell culture devices. This review will highlight the work that has been performed towards combining these techniques and will discuss potential future directions. It is clear that microfluidic-based 3D cell culture coupled with quantitative analysis can greatly improve our ability to mimic and understand systems.
一篇包含105篇参考文献的综述,分析了具有集成检测方案的微流控平台中3D细胞培养这一新兴研究领域。在过去几十年里,细胞培养的一个核心重点一直是开发更好的细胞模拟物。这导致了从平面细胞培养到3D支架上的细胞培养的演变,以及将细胞支架纳入微流控设备。具体而言,本综述探讨了将悬浮培养、水凝胶支架、纸质支架和纤维支架纳入微流控平台的情况。为了减少分析时间、简化样品制备、监测细胞间通讯或细胞生长中涉及的关键信号通路,并克服传统检测中样品体积/稀释的局限性,研究人员也开始专注于将检测方案集成到细胞培养设备中。本综述将重点介绍在结合这些技术方面所开展的工作,并讨论潜在的未来方向。显然,基于微流控的3D细胞培养与定量分析相结合能够极大地提高我们模拟和理解系统的能力。