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基于芯片的单细胞分析用于纳米毒性评估。

Chip based single cell analysis for nanotoxicity assessment.

作者信息

Shah Pratikkumar, Kaushik Ajeet, Zhu Xuena, Zhang Chengxiao, Li Chen-Zhong

机构信息

Department of Biomedical Engineering, Florida International University, Miami, FL, USA.

出版信息

Analyst. 2014 May 7;139(9):2088-98. doi: 10.1039/c3an02280c.

Abstract

Nanomaterials, because of their tunable properties and performances, have been utilized extensively in everyday life related consumable products and technology. On exposure, beyond the physiological range, nanomaterials cause health risks via affecting the function of organisms, genomic systems, and even the central nervous system. Thus, new analytical approaches for nanotoxicity assessment to verify the feasibility of nanomaterials for future use are in demand. The conventional analytical techniques, such as spectrophotometric assay-based techniques, usually require a lengthy and time-consuming process and often produce false positives, and often cannot be implemented at a single cell level measurement for studying cell behavior without interference from its surrounding environment. Hence, there is a demand for a precise, accurate, sensitive assessment for toxicity using single cells. Recently, due to the advantages of automation of fluids and minimization of human errors, the integration of a cell-on-a-chip (CoC) with a microfluidic system is in practice for nanotoxicity assessments. This review explains nanotoxicity and its assessment approaches with advantages/limitations and new approaches to overcome the confines of traditional techniques. Recent advances in nanotoxicity assessment using a CoC integrated with a microfluidic system are also discussed in this review, which may be of use for nanotoxicity assessment and diagnostics.

摘要

纳米材料因其可调谐的性质和性能,已被广泛应用于与日常生活相关的消费品和技术中。在暴露于超出生理范围的情况下,纳米材料会通过影响生物体、基因组系统甚至中枢神经系统的功能而导致健康风险。因此,需要新的纳米毒性评估分析方法来验证纳米材料未来使用的可行性。传统的分析技术,如基于分光光度法的技术,通常需要漫长且耗时的过程,并且经常产生假阳性结果,而且在不受到周围环境干扰的单细胞水平测量中往往无法实施以研究细胞行为。因此,需要使用单细胞进行精确、准确、灵敏的毒性评估。最近,由于流体自动化和人为误差最小化的优点,芯片上细胞(CoC)与微流体系统的集成在纳米毒性评估中得到了实际应用。本综述解释了纳米毒性及其评估方法,包括优点/局限性以及克服传统技术局限的新方法。本综述还讨论了使用与微流体系统集成的CoC进行纳米毒性评估的最新进展,这可能对纳米毒性评估和诊断有用。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/2d25/4074534/a1298073330a/nihms577833f1.jpg

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