Real-Time and Non-invasive Measurement of 3D Cancer Cell Invasion Process under IL-6 Cytokine Stimulation

Chun-Hao Huang, K. Lei
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Abstract

Cancer cells possess a broad spectrum of invasion mechanisms. Quantitative analysis of cancer cell invasion process under tested condition is important to precisely study the cellular invasion capability. In this study, a microfluidic device was developed and electrodes were embedded in the microchannel for the impedimetric measurement of cell invasion. Cancer cells were stimulated by interleukin-6 cytokine and invaded along the hydrogel-filled microchannel. The three-dimensional (3D) cell invasion process was monitored by measuring the impedance across the electrodes. The cell invasion speed could be calculated based on the cell invasion distance divided by time. Thus, 3D cell invasion process was demonstrated to be quantitatively monitored in real-time and non-invasive manner. The current development provides a promising and quantitative tool for cell invasion assay.
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IL-6细胞因子刺激下癌细胞三维侵袭过程的实时无创测量
癌细胞具有广泛的侵袭机制。在实验条件下定量分析癌细胞的侵袭过程对精确研究细胞的侵袭能力具有重要意义。在本研究中,开发了一种微流体装置,并将电极嵌入微通道中,用于细胞入侵的阻抗测量。癌细胞受白细胞介素-6细胞因子刺激,沿水凝胶填充的微通道侵入。通过测量电极间的阻抗来监测三维(3D)细胞入侵过程。细胞侵袭速度可由细胞侵袭距离除以时间计算得到。因此,可以实时、无创地定量监测三维细胞侵袭过程。目前的研究进展为细胞侵袭试验提供了一种有前景的定量工具。
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