改善细胞特性的基因组编码策略:机制和进展

IF 4.6 4区 农林科学 Q1 BIOTECHNOLOGY & APPLIED MICROBIOLOGY
Tanya Singh, Sudesh Kumar Yadav, Alexander Vainstein, Vinay Kumar
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引用次数: 2

摘要

基因密码,曾经被认为是普遍的和不可变的,现在已知包含许多变异,并不完全普遍。基因组编码策略的基础是可以用来改善细胞特性的遗传密码变异。因此,基因组重新编码是一种很有前途的策略,可以增强基因组的灵活性,实现生物体在自然环境中通常没有记录的新功能。在这里,遗传密码的基本概念和产生遗传密码子变体的相关机制,包括有偏见的密码子使用、密码子重新分配和模糊解码,都被广泛讨论。还详细介绍了自然遗传密码扩展的概念。为了全面理解这一概念,重点介绍了编码生物体的产生以及具有基本靶向成分的相关机制,包括氨酰基tRNA合成酶-tRNA对、延伸因子EF-Tu和核糖体。还讨论了与产生不同编码生物相关的研究。基因组重组在多种多细胞生物中的成功为用非经典氨基酸在生物化学水平上扩展蛋白质化学、从天然生物中基因分离合成生物以及通过产生减毒病毒来对抗包括严重急性呼吸系统综合征冠状病毒2型在内的病毒提供了一个平台。总之,基因组编码可以为改善基因组编码生物体的细胞特性提供多种应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Genome recoding strategies to improve cellular properties: mechanisms and advances

Genome recoding strategies to improve cellular properties: mechanisms and advances

Genome recoding strategies to improve cellular properties: mechanisms and advances

Genome recoding strategies to improve cellular properties: mechanisms and advances

The genetic code, once believed to be universal and immutable, is now known to contain many variations and is not quite universal. The basis for genome recoding strategy is genetic code variation that can be harnessed to improve cellular properties. Thus, genome recoding is a promising strategy for the enhancement of genome flexibility, allowing for novel functions that are not commonly documented in the organism in its natural environment. Here, the basic concept of genetic code and associated mechanisms for the generation of genetic codon variants, including biased codon usage, codon reassignment, and ambiguous decoding, are extensively discussed. Knowledge of the concept of natural genetic code expansion is also detailed. The generation of recoded organisms and associated mechanisms with basic targeting components, including aminoacyl-tRNA synthetase–tRNA pairs, elongation factor EF-Tu and ribosomes, are highlighted for a comprehensive understanding of this concept. The research associated with the generation of diverse recoded organisms is also discussed. The success of genome recoding in diverse multicellular organisms offers a platform for expanding protein chemistry at the biochemical level with non-canonical amino acids, genetically isolating the synthetic organisms from the natural ones, and fighting viruses, including SARS-CoV2, through the creation of attenuated viruses. In conclusion, genome recoding can offer diverse applications for improving cellular properties in the genome-recoded organisms.

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CiteScore
7.70
自引率
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