Genómica de Poblaciones: Nada en Evolución va a tener sentido si no es a la luz de la Genómica, y nada en Genómica tendrá sentido si no es a la luz de la Evolución

Luis E. Eguiarte, Jonás A. Aguirre-Liguori, Lev Jardón-Barbolla, Erika Aguirre-Planter, Valeria Souza
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引用次数: 7

Abstract

The theory of population genetics originated over 80 years ago and allowed to explain, in terms of the evolutionary forces, the patterns of genetic variation within and between the populations that conform species. This research program generated the questions that have been empirically analyzed with the use of molecular markers for the last 50 years. A fundamental question within population genetics is if a reduced number of genes are representative of the evolutionary forces that affect the total genome of a species. This question has led to the development of molecular methods that allow the study of large sections of the genome in natural populations, giving rise to the field of population genomics. In recent years, techniques that are able to sequence DNA massively, usually called “Next generation sequencing” or “next-gen”, are helping us to obtain genome wide data in many species, without needing previous molecular information. Comparing the genomes of many individuals from different populations, now we have access to an archive of their evolutionary history that narrates the complex and dynamic balance in time between natural selection and other evolutionary forces, such as genetic drift and gene flow, which act mainly in neutral regions of the genomes. The amount of information that is being produced has required the development of new statistical and bioinformatics tools for their analyses. Diverse disciplines have profited from these new developments. In particular in evolutionary biology it is now possible to study in a more precise way the adaptive patterns of variation. The annotation of genomes and the mapping of traits are important and complicated, but recent technical developments are making these goals easier, and thus the future challenge will be in asking the right questions to make relevant inferences from the sea of information these new methods generate. The evolutionary and population genetics perspective will enrich genomics, in the same way that the genomic data will help us advance in the development of the program initiated by Theodosius Dobzhansky several decades ago.

人口基因组学:如果没有基因组学的光,进化中的任何东西都没有意义,如果没有进化的光,基因组学中的任何东西都没有意义
种群遗传学理论起源于80多年前,从进化力量的角度解释了种群内部和种群之间符合物种的遗传变异模式。这个研究项目产生了一些问题,这些问题在过去的50年里通过使用分子标记进行了实证分析。群体遗传学中的一个基本问题是,减少的基因数量是否代表了影响一个物种整个基因组的进化力量。这个问题导致了分子方法的发展,这种方法允许研究自然种群中的大部分基因组,从而产生了种群基因组学领域。近年来,能够对DNA进行大规模测序的技术,通常被称为“下一代测序”或“下一代”,正在帮助我们获得许多物种的全基因组数据,而不需要先前的分子信息。通过比较来自不同种群的许多个体的基因组,现在我们有机会获得他们的进化史档案,它讲述了自然选择和其他进化力量(如遗传漂变和基因流)之间复杂而动态的时间平衡,这些力量主要作用于基因组的中性区域。正在产生的信息量要求开发新的统计和生物信息学工具进行分析。各种学科都从这些新发展中获益。特别是在进化生物学中,现在有可能以更精确的方式研究变异的适应模式。基因组的注释和特征的映射是重要而复杂的,但最近的技术发展使这些目标更容易实现,因此未来的挑战将是提出正确的问题,从这些新方法产生的信息海洋中做出相关的推断。进化和群体遗传学的观点将丰富基因组学,就像基因组数据将帮助我们推进几十年前由Theodosius Dobzhansky发起的计划一样。
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