人类基因和可转运因子的加速变异网络的起源

B. Fuks, A. B. Konstantinov
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摘要

在这篇综述中,作者讨论了与人类进化有关的问题。人类与所有其他物种的不同之处在于,她根据自己选择的计划或想法行事。人类加速区(HAR)的发现表明,进化上新的调控区在人脑的功能和发育中起着重要作用。在智人中,这一区域的保守序列经历了多次单核苷酸替换。在5个选择的HARs中,替换率比黑猩猩高26倍,显示出63个极快节奏的智人区域。在进化过程中,调节神经系统发育的人类基因主要在其非编码序列中进行正选择。92%检测到的HARs位于基因间区和内含子,因此是调控序列,如增强子。我们的基因组中只有2%是编码蛋白质的基因,其余98%是编码控制不同组织中基因表达的调控元件。真核生物基因组包含数千到数百万个可转运元素(TE)拷贝。作者认为,进化是由转座子(TEs)的动力学和自然选择驱动的。人口研究已经发现了数千个以常见遗传变异形式存在的个体TE插入,即TE多态性。活跃的人类TE家族包括Alu、L1和SVA元件。这些活跃的人类TE家族是反转录转座子。人类TE多基因型分析表明,TE多态性模式重复了过去6万至10万年人类进化和迁移的模式。它们与人类调节基因的变化有关。模式的相似性使人们能够看到TE对使用编码结构创造人体结构的调节结构的影响。这一结论与智力基因的研究一致,这些研究基于SNP与智商的关联,以及结构和功能网络的基础。在过去的600万年中,人类遗传变异的高比例正选择和软扫描可能解释了智人的加速进化。HAR中基因变异性的加速与前人类活动的增加同时发生,目的是为了创造一个具有中性突变基因的局部环境,以软扫描的方式表达。人类自己创造了自己现在和未来的生物进化。
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Accelerated Variability of Human Genes and Transportable Elements; Genesis of Network
In this review the authors address the issues related to the evolution of human. A human differs from all other species in that she acts according to a plan, or an idea she has chosen. The discovery of HAR (human accelerated region) showed that evolutionarily new regulatory regions play an important role in the functioning and development of the human brain. In Homo sapiens, conserved sequences in this area underwent numerous single nucleotide substitutions. In the five selected HARs, substitution rates were 26 times higher than those for chimpanzees showing 63 extremely fast-paced regions for H. sapiens. Human genes that regulate the development of the nervous system during evolution underwent positive selection mainly within their non-coding sequences. 92% of the detected HARs are located in intergenic regions and introns and therefore are regulatory sequences, such as enhancers. Only 2% of our genome consists of genes encoding a protein, and the remaining 98% encode regulatory elements that control gene expression in different tissues. Eukaryotic genomes contain thousands to millions of copies of transportable elements (TE). Authors believe that evolution is driven by the dynamics of transposons (TEs) and natural selection. Population studies have found thousands of individual TE insertions in the form of common genetic variants, i.e., TE polymorphisms. Active human TE families include Alu, L1, and SVA elements. These active families of human TE are retrotransposons. Analysis of human polyTE genotypes shows that patterns of TE polymorphism repeat the pattern of human evolution and migration over the past 60,000-100,000 years. They are involved in changes in human regulatory genes. The similarity of patterns allows one to see the effect of TE on regulatory structures that create the structure of the human body, using encoded structures. This conclusion is consistent with studies of intelligence genes, which are based on SNP associations with IQ, as well as with the foundations of a structural and functional network. High proportion of positive selection of genetic variants of our species for the last 6 million years and soft sweeps may explain the accelerated evolution of H. sapiens. The acceleration of gene variability in HAR occurred in parallel with an increase in the activity of the prehuman aimed at the expedient creation of a local environment with neutral mutant genes, expressed in soft sweeps. Humanity itself creates its own present and future biological evolution.
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