Development of a Microfluidic Chip for 3D Cancer Cell Migration Assay

Chun-Chih Yeh, Andrew Goh, K. Lei
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Abstract

Metastasis is a serious disease caused by primary tumor cell dissemination to different organs. Although, invasion of primary tumor cell is the initial step required in tumor metastasis, migration is also the important key elements activity in cancer cell detach from the primary tumor and spreading to other extracellular matrix. Currently, various cell migration assays have been developed to investigate the motility behavior of the multicellular, including wound healing / scratch assay and transwell assay. However, most of the in vitro researches of cell motility are based on two-dimensional (2D) culture systems, which limit our understanding of the mechanisms of cell motility. Thus, three dimensional culture (3D) model is necessary which is able to mimic conditions and microenvironments of in vivo. In this study, a microfluidic chip was developed and matrigel was used as cell scaffold. In order to perform 3D cell migration assay, cells cultured in 3D environment and invaded through a matrigel filled microchannel. In addition, we determine the motility of the cancer cell correlated to the interleukin 6 (IL-6) concentration. Here, we successfully developed a prototype of visualizing and quantifying 3D cell migration assay.
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三维癌细胞迁移微流控芯片的研制
转移是原发肿瘤细胞向不同脏器扩散而引起的严重疾病。虽然侵袭原发肿瘤细胞是肿瘤转移的第一步,但迁移也是癌细胞脱离原发肿瘤并向其他细胞外基质扩散的重要关键因素。目前,已经开发了各种细胞迁移试验来研究多细胞的运动行为,包括伤口愈合/划痕试验和transwell试验。然而,大多数细胞运动的体外研究都是基于二维(2D)培养系统,这限制了我们对细胞运动机制的理解。因此,三维培养(3D)模型是必要的,它能够模拟在体内的条件和微环境。本研究开发了一种微流控芯片,并采用基质材料作为细胞支架。为了进行三维细胞迁移实验,细胞在三维环境中培养,并通过填充基质的微通道侵入。此外,我们确定癌细胞的运动与白细胞介素6 (IL-6)浓度相关。在这里,我们成功地开发了一个可视化和量化三维细胞迁移试验的原型。
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