The Procter and Gamble Company, Mason, Ohio 45040, USA.
Lab Chip. 2012 Oct 21;12(20):4006-9. doi: 10.1039/c2lc90100e.
Cellular mechanical properties have been observed to have important implications for pathogenesis and pathophysiology. These observations have led to the recent development of a unique class of biomarkers: mechanical biomarkers. Compared with the traditional biochemical-based biomarkers (e.g., antibodies), mechanical biomarkers have many advantages such as label-free, low cost, convenient maintenance, and reduced assay time. In the past few years, there has been an increasing effort to exploit cellular mechanical biomarkers in microfluidic devices. This trend makes sense because microfluidic devices often feature structures that have characteristic lengths similar to those of cells, which renders them uniquely capable of probing and utilizing mechanical biomarkers. In this Focus article, we discuss a few examples of mechanical biomarker-based microfluidic applications. We believe that these examples are just the tip of the iceberg and that the full potential of mechanical biomarkers in microfluidic-based diagnostics and therapeutics has yet to be revealed.
细胞力学特性已被观察到对发病机制和病理生理学有重要影响。这些观察结果导致了一类独特的生物标志物的最近发展:力学生物标志物。与传统的基于生化的生物标志物(例如抗体)相比,力学生物标志物具有许多优点,例如无标记、低成本、方便维护和缩短检测时间。在过去几年中,人们越来越努力地在微流控设备中利用细胞力学生物标志物。这种趋势是有道理的,因为微流控设备通常具有与细胞相似的特征长度的结构,这使它们能够独特地探测和利用力学生物标志物。在这篇专题文章中,我们讨论了一些基于力学生物标志物的微流控应用的例子。我们相信,这些例子只是冰山一角,力学生物标志物在微流控诊断和治疗中的全部潜力尚未被揭示。