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除了从基因组学的角度,进化中的一切都毫无意义:读写基因组进化是一个活跃的生物学过程。

Nothing in Evolution Makes Sense Except in the Light of Genomics: Read-Write Genome Evolution as an Active Biological Process.

作者信息

Shapiro James A

机构信息

Department of Biochemistry and Molecular Biology, University of Chicago, GCIS W123B, 979 E. 57th Street, Chicago, IL 60637, USA.

出版信息

Biology (Basel). 2016 Jun 8;5(2):27. doi: 10.3390/biology5020027.

DOI:10.3390/biology5020027
PMID:27338490
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC4929541/
Abstract

The 21st century genomics-based analysis of evolutionary variation reveals a number of novel features impossible to predict when Dobzhansky and other evolutionary biologists formulated the neo-Darwinian Modern Synthesis in the middle of the last century. These include three distinct realms of cell evolution; symbiogenetic fusions forming eukaryotic cells with multiple genome compartments; horizontal organelle, virus and DNA transfers; functional organization of proteins as systems of interacting domains subject to rapid evolution by exon shuffling and exonization; distributed genome networks integrated by mobile repetitive regulatory signals; and regulation of multicellular development by non-coding lncRNAs containing repetitive sequence components. Rather than single gene traits, all phenotypes involve coordinated activity by multiple interacting cell molecules. Genomes contain abundant and functional repetitive components in addition to the unique coding sequences envisaged in the early days of molecular biology. Combinatorial coding, plus the biochemical abilities cells possess to rearrange DNA molecules, constitute a powerful toolbox for adaptive genome rewriting. That is, cells possess "Read-Write Genomes" they alter by numerous biochemical processes capable of rapidly restructuring cellular DNA molecules. Rather than viewing genome evolution as a series of accidental modifications, we can now study it as a complex biological process of active self-modification.

摘要

21世纪基于基因组学的进化变异分析揭示了许多新特征,这些特征在上世纪中叶杜布赞斯基和其他进化生物学家提出新达尔文主义现代综合理论时是无法预测的。这些特征包括细胞进化的三个不同领域;形成具有多个基因组区室的真核细胞的共生融合;水平细胞器、病毒和DNA转移;作为通过外显子洗牌和外显子化而快速进化的相互作用结构域系统的蛋白质功能组织;由移动重复调控信号整合的分布式基因组网络;以及由包含重复序列成分的非编码长链非编码RNA对多细胞发育的调控。所有表型并非单一基因性状,而是涉及多个相互作用的细胞分子的协同活动。除了分子生物学早期设想的独特编码序列外,基因组还包含丰富且具有功能的重复成分。组合编码,加上细胞所具备的重排DNA分子的生化能力,构成了一个用于适应性基因组重写的强大工具箱。也就是说,细胞拥有“读写基因组”,它们通过能够快速重组细胞DNA分子的众多生化过程来改变基因组。我们现在可以将基因组进化视为一个主动自我修饰的复杂生物学过程,而不是一系列偶然的修饰。