Omicron内在的基因-基因相互作用与早期的SARS-CoV-2变体和人类与动物之间的基因同源物有所不同

Zhengjun Zhang
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引用次数: 0

摘要

在世界范围内,冠状病毒及其亚变体已成为主要的SARS-CoV-2变体。欧米克隆的基本繁殖数(R0)已经接近20或更高。然而,目前尚不清楚是什么导致了如此高的R0,以及Omicron的内在基因-基因相互作用是否与早期变异不同。目的探讨Omicron基因与基因之间的内在相互作用,并对极高R0的Omicron感染进行解释。方法采用最大线性竞争逻辑回归分类器。结果我们发现,Omicron的内在基因-基因相互作用与早期的SARS-CoV-2变异有所不同,这可以通过我们早期工作中报道的一组微型基因完全描述。我们发现基因PTAFR(血小板活化因子受体)与Omicron变异高度相关,基因CCNI (Cyclin I)也是如此,该基因在黑猩猩、恒河猴、狗、牛、小鼠、大鼠、鸡、斑马鱼和青蛙中保守。PTAFR和CCNI联合使用可100%准确区分Omicron COVID-19感染和COVID-19阴性。结论我们假设Omicron变异可能从感染covid -19的动物跳传给人类。此外,除了PTAFR和CCNI之外,还有其他几种双基因相互作用也可以达到100%的准确性。这些观察结果可以解释欧米克隆的快速传播繁殖能力,因为这两种基因相互作用中的任何一种都可能导致COVID-19感染,即R0的增殖会导致更高的R0。在基因组水平上,PTAFR、CCNI和本工作中发现的其他几个基因除了现有的抗病毒药物外,还可以成为Omicron的可药物靶点和抗病毒药物。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Omicron’s intrinsic gene-gene interactions jumped away from earlier SARS-CoV-2 variants and gene homologs between humans and animals

Background

Omicron and its subvariants have become the predominant SARS-CoV-2 variants worldwide. The Omicron’s basic reproduction number (R0) has been close to 20 or higher. However, it is not known what caused such an extremely high R0 and whether Omicron’s intrinsic gene-gene interactions are different from earlier variants.

Objective

Find Omicron’s intrinsic gene-gene interactions and an explanation for the extremely high R0 Omicron infection.

Methods

Max-linear competing logistic regression classifier.

Results

We found that Omicron’s intrinsic gene-gene interactions jumped away from earlier SARS-CoV-2 variants which can be fully described by a miniature set of genes reported in our earlier work. We found that the gene PTAFR (Platelet Activating Factor Receptor) is highly correlated with Omicron variants, and so is the gene CCNI (Cyclin I), which is conserved in chimpanzee, Rhesus monkey, dog, cow, mouse, rat, chicken, zebrafish, and frog. The combination of PTAFR and CCNI can lead to a 100% accuracy of differentiating Omicron COVID-19 infection and COVID-19 negative.

Conclusions

We hypothesize that Omicron variants were potentially jumped from COVID-19-infected animals back to humans. In addition, there are also several other two-gene interactions, besides PTAFR and CCNI, that lead to 100% accuracy. Such observations can explain Omicron's fast-spread reproduction capability as either of those two-gene interactions can lead to COVID-19 infection, i.e., multiplication of R0s leads to a much higher R0. At the genomic level, PTAFR, CCNI, and several other genes identified in this work rise to Omicron druggable targets and antiviral drugs besides the existing antiviral drugs.

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Advances in biomarker sciences and technology
Advances in biomarker sciences and technology Biotechnology, Clinical Biochemistry, Molecular Medicine, Public Health and Health Policy
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