Gryadunov D A, Shaskolskiy B L, Nasedkina T V, Rubina A Yu, Zasedatelev A S
Engelhardt Institute of Molecular Biology, Russian Academy of Sciences, Vavilova Str., 32, Moscow, 119991, Russia.
Acta Naturae. 2018 Oct-Dec;10(4):4-18.
Biological microarrays (biochips) are analytical tools that can be used to implement complex integrative genomic and proteomic approaches to the solution of problems of personalized medicine (e.g., patient examination in order to reveal the disease long before the manifestation of clinical symptoms, assess the severity of pathological or infectious processes, and choose a rational treatment). The efficiency of biochips is predicated on their ability to perform multiple parallel specific reactions and to allow one to study the interactions of biopolymer molecules, such as DNA, proteins, glycans, etc. One of the pioneers of microarray technology was the Engelhardt Institute of Molecular Biology of the Russian Academy of Sciences (EIMB), with its suggestion to immobilize molecular probes in the three-dimensional structure of a hydrophilic gel. Since the first experiments on sequencing by hybridization on oligonucleotide microarrays conducted some 30 years ago, the hydrogel microarrays designed at the EIMB have come a long and successful way from basic research to clinical laboratory diagnostics. This review discusses the key aspects of hydrogel microarray technology and a number of state-ofthe-art approaches for a multiplex analysis of DNA and the protein biomarkers of socially significant diseases, including the molecular genetic, immunological, and epidemiological aspects of pathogenesis.
生物微阵列(生物芯片)是一种分析工具,可用于实施复杂的综合基因组学和蛋白质组学方法,以解决个性化医疗问题(例如,在临床症状出现之前很久对患者进行检查,以发现疾病、评估病理或感染过程的严重程度,并选择合理的治疗方法)。生物芯片的效率取决于它们进行多个平行特异性反应的能力,以及使人们能够研究生物聚合物分子(如DNA、蛋白质、聚糖等)之间相互作用的能力。微阵列技术的先驱之一是俄罗斯科学院恩格尔哈特分子生物学研究所(EIMB),该研究所建议将分子探针固定在亲水性凝胶的三维结构中。自大约30年前首次在寡核苷酸微阵列上进行杂交测序实验以来,EIMB设计的水凝胶微阵列已经走过了漫长而成功的道路,从基础研究发展到临床实验室诊断。本综述讨论了水凝胶微阵列技术的关键方面,以及一些用于对具有社会意义疾病的DNA和蛋白质生物标志物进行多重分析的最新方法,包括发病机制的分子遗传学、免疫学和流行病学方面。