Principios básicos de la genómica y sus aplicaciones

e-CUCBA Pub Date : 2022-04-26 DOI:10.32870/ecucba.vi18.248
Jessica Pérez Alquicira, Flor Rodríguez-Gómez, Ofelia Vargas-Ponce, Zayra Arery Guadalupe Muñoz-González, Gabriela Alcalá-Gómez, Pilar Zamora-Tavares
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Abstract

Genomics is the discipline that studies the structure, function, and evolution of genomes and addresses the methodological processes used tosequence and assemble the genome. Analyzing sequencing data requires state-of-the-art computational resources and specialized mathematicalalgorithms and software, which are together known as bioinformatics. The history of genome sequencing can be divided into three stages: 1)first-generation, which is based on the sequencing of a single fragment using capillary electrophoresis; 2) second generation, characterized by themass parallelization of sequencing reactions, resulting in an increase in the amount of DNA fragments sequenced with a length of 50 to 300 basepairs; and 3) third generation, which also includes the mass sequencing, but of much longer fragments (> 10000 base pairs), which facilitatesgenome assembly. Advances in massive sequencing have allowed for the sequencing of a large number of genomes, which has had broadapplications in medicine, the improvement of economically important plant and animal species, and phylogenetic studies, among many others.One of the main branches of genomics is metagenomics, which has been highly important in generating knowledge of the composition anddiversity of microorganisms in environmental samples of water, air, and other materials, facilitating the recognition of new taxa. Another branchof genomics is phylogenomics, which is used to infer the evolutionary relationships among species. Therefore, the advances in sequencingplatforms as well as advances in the area of bioinformatics have resulted in a revolution of knowledge of genome complexity
基因组学的基本原理及其应用
基因组学是一门研究基因组结构、功能和进化的学科,并研究用于测序和组装基因组的方法过程。分析测序数据需要最先进的计算资源和专门的数学算法和软件,这些都被称为生物信息学。基因组测序的历史可以分为三个阶段:1)第一代,这是基于毛细管电泳对单个片段的测序;2)第二代,以测序反应的大规模并行化为特征,测序长度为50 ~ 300碱基对的DNA片段数量增加;3)第三代,也包括大规模测序,但更长的片段(大约10000个碱基对),这有助于基因组组装。大规模测序技术的进步使大量基因组测序成为可能,这在医学、经济上重要的植物和动物物种的改良以及系统发育研究等许多方面都有广泛的应用。基因组学的一个主要分支是宏基因组学,它在水、空气和其他物质的环境样品中产生微生物组成和多样性的知识,促进新分类群的识别方面具有重要意义。基因组学的另一个分支是系统基因组学,用来推断物种之间的进化关系。因此,测序平台的进步以及生物信息学领域的进步导致了基因组复杂性知识的革命
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