Auckland Microfabrication Facility, Department of Chemistry, University of Auckland, Auckland, New Zealand.
Curr Opin Chem Biol. 2010 Oct;14(5):556-67. doi: 10.1016/j.cbpa.2010.08.016. Epub 2010 Sep 9.
Despite over 2 million papers published on cancer so far, malignancy still remains a puzzlingly complex disease with overall low survival rates. Expanding our knowledge of the molecular mechanisms of malignancy and of resistance to therapy is crucial in guiding the successful design of anti-cancer drugs and new point-of-care diagnostics. The up-and-coming microfluidic Lab-on-a-Chip (LOC) technology and micro-total analysis systems (μTAS) are arguably the most promising platforms to address the inherent complexity of cellular systems with massive experimental parallelization and 4D analysis on a single cell level. This review discusses the emerging applications of microfluidic technologies and their advantages for cancer biology and experimental oncology. We also summarize the recent advances in miniaturized systems to study cancer cell microenvironment, cancer cytomics, and real-time (4D) pharmacological screening. Microfabricated systems, such as cell microarrays, together with on-chip label-less cytometry, and micro-sorting technologies, are all highlighted with the view of describing their potential applications in pharmacological screening, drug discovery, and clinical oncology. It is envisaged that microfluidic solutions may well represent the platform of choice for next generation in vitro cancer models.
尽管目前已经发表了超过 200 万篇关于癌症的论文,但恶性肿瘤仍然是一种令人费解的复杂疾病,总体生存率仍然较低。扩展我们对恶性肿瘤分子机制和治疗耐药性的认识,对于指导成功设计抗癌药物和新的即时诊断至关重要。新兴的微流控芯片实验室(LOC)技术和微全分析系统(μTAS)可以说是最有前途的平台,可以通过大规模的实验并行化和单细胞水平的 4D 分析,解决细胞系统固有的复杂性。本综述讨论了微流控技术的新兴应用及其在癌症生物学和实验肿瘤学中的优势。我们还总结了用于研究癌细胞微环境、癌症细胞组学和实时(4D)药物筛选的小型化系统的最新进展。微制造系统,如细胞微阵列,以及片上无标记细胞术和微分选技术,都被突出强调,以期描述它们在药物筛选、药物发现和临床肿瘤学中的潜在应用。可以预见,微流控解决方案很可能成为下一代体外癌症模型的首选平台。