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掌握 Rho 转录因子的控制用于生物技术应用。

Mastering the control of the Rho transcription factor for biotechnological applications.

机构信息

Department of Microbiology and Parasitology, Faculty of Pharmacy, University of Santiago de Compostela, La Coruña, 15706, Santiago de Compostela, Spain.

Sydney School of Veterinary Science, Faculty of Science, University of Sydney, Sydney, NSW, 2006, Australia.

出版信息

Appl Microbiol Biotechnol. 2021 May;105(10):4053-4071. doi: 10.1007/s00253-021-11326-7. Epub 2021 May 8.

Abstract

The present review represents an update on the fundamental role played by the Rho factor, which facilitates the process of Rho-dependent transcription termination in the prokaryotic world; it also provides a summary of relevant mutations in the Rho factor and the insights they provide into the functions carried out by this protein. Furthermore, a section is dedicated to the putative future use of Rho (the 'taming' of Rho) to facilitate biotechnological processes and adapt them to different technological contexts. Novel bacterial strains can be designed, containing mutations in the rho gene, that are better suited for different biotechnological applications. This process can obtain novel microbial strains that are adapted to lower temperatures of fermentation, shorter production times, exhibit better nutrient utilization, or display other traits that are beneficial in productive Biotechnology. Additional important issues reviewed here include epistasis, the design of TATA boxes, the role of small RNAs, and the manipulation of clathrin-mediated endocytosis, by some pathogenic bacteria, to invade eukaryotic cells. KEY POINTS: • It is postulated that controlling the action of the prokaryotic Rho factor could generate major biotechnological improvements, such as an increase in bacterial productivity or a reduction of the microbial-specific growth rate. • The review also evaluates the putative impact of epistatic mechanisms on Biotechnology, both as possible responsible for unexpected failures in gene cloning and more important for the genesis of new strains for biotechnological applications • The use of clathrin-coated vesicles by intracellular bacterial microorganisms is included too and proposed as a putative delivery mechanism, for drugs and vaccines.

摘要

本文综述了 Rho 因子在原核生物中促进 Rho 依赖型转录终止过程中的基本作用,总结了 Rho 因子的相关突变及其对该蛋白功能的深入了解。此外,本文还专门介绍了 Rho 的潜在未来用途(“驯服”Rho),以促进生物技术过程并使其适应不同的技术环境。可以设计含有 rho 基因突变的新型细菌菌株,使其更适合不同的生物技术应用。这一过程可以获得适应较低发酵温度、较短生产时间、更好利用营养物质或表现出其他在生产性生物技术中有益特性的新型微生物菌株。本文还讨论了其他重要问题,如上位性、TATA 盒的设计、小 RNA 的作用以及某些致病性细菌通过网格蛋白介导的内吞作用入侵真核细胞的机制。关键点:

  • 控制原核 Rho 因子的活性可能会带来重大的生物技术改进,例如提高细菌生产力或降低微生物比生长速率。

  • 本文还评估了上位性机制对生物技术的潜在影响,包括其可能导致基因克隆失败的原因,以及更重要的是为生物技术应用产生新菌株的原因。

  • 本文还介绍了细胞内细菌微生物利用网格蛋白包被小泡的情况,并将其作为一种潜在的药物和疫苗递药机制。

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