一类基因

Yanying Wu
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引用次数: 0

摘要

了解基因如何相互作用和相互联系是生物学中的一个基本问题。然而,目前描述这些关系的做法,例如以某种武断的方式绘制图表或图形,限制了我们整合基因功能的各个方面并从整体上看待基因组的能力。为了克服这些限制,我们需要一种更合适的方式来描述基因之间复杂的关系。有趣的是,范畴论,一个看似与生物学无关的抽象数学领域,已经成为一种描述一般关系的强大语言。我们提出范畴理论可以为我们对基因及其关系的认识提供一个统一的框架。作为起点,我们构建了一个基因类别,其形态抽象了基因之间关系的各个方面。这些关系包括,但不限于,染色体上的基因顺序,物理或遗传相互作用,信号通路,基因本体因果活动模型(GO-CAM)和基因群。以前,它们是由各种各样的网络或图形编码的,而我们的工作以一致的方式将它们统一为一个类别。通过这样做,我们希望系统地观察基因之间的关系。从长远来看,这为我们理解调控和功能的基本原则铺平了一条有希望的道路。
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A Category of Genes
Understanding how genes interact and relate to each other is a fundamental question in biology. However, current practices for describing these relationships, such as drawing diagrams or graphs in a somewhat arbitrary manner, limit our ability to integrate various aspects of the gene functions and view the genome holistically. To overcome these limitations, we need a more appropriate way to describe the intricate relationships between genes. Interestingly, category theory, an abstract field of mathematics seemingly unrelated to biology, has emerged as a powerful language for describing relations in general. We propose that category theory could provide a framework for unifying our knowledge of genes and their relationships. As a starting point, we construct a category of genes, with its morphisms abstracting various aspects of the relationships betweens genes. These relationships include, but not limited to, the order of genes on the chromosomes, the physical or genetic interactions, the signalling pathways, the gene ontology causal activity models (GO-CAM) and gene groups. Previously, they were encoded by miscellaneous networks or graphs, while our work unifies them in a consistent manner as a category. By doing so, we hope to view the relationships between genes systematically. In the long run, this paves a promising way for us to understand the fundamental principles that govern gene regulation and function.
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