Ribosomal Protein S12 and Its Effects on Specialized Metabolism of Streptomyces Bacteria

B. Ostash
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Abstract

Species within the actinobacterial genus Streptomyces represent one of the most gifted natural chemists in the microbial world. Their specialized metabolites attract the interest of the pharmaceutical industry as a source of novel drugs. A majority of these molecules pose an insurmountable challenge for economically justified production via chemical synthesis. Therefore, submerged fermentation-based isolation of such molecules often remains the only viable way to obtain them. This in turn fuels interest in process development programs aiming to maximize the yield of specialized metabolite per volume unit of fermentation medium. Along with the optimization of the medium and the fermentation mode itself, strain improvement remains an important part of an overall process development endeavor. An improved strain can be generated via application of traditional approaches of selection for random or induced mutants and genomics-enabled genetic engineering methods. Here I focus on a specific class of mutations with the gene rpsL for ribosomal protein S12, which often confer resistance to streptomycin in bacteria and upregulate specialized metabolism in Streptomyces. The review will portray the evolution of our understanding of the mechanisms behind rpsL mutations, as well as how technological advances change the way these mutations are introduced into the genomes of interest.
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核糖体蛋白S12及其对链霉菌特殊代谢的影响
放线菌属链霉菌是微生物界最具天赋的天然化学家之一。它们的特殊代谢物作为新药的来源吸引了制药业的兴趣。这些分子中的大多数对于通过化学合成进行经济合理的生产构成了不可克服的挑战。因此,基于浸没发酵的分离这些分子通常仍然是获得它们的唯一可行方法。这反过来又激发了工艺开发计划的兴趣,旨在最大限度地提高每体积单位发酵培养基的特殊代谢物的产量。随着培养基和发酵方式本身的优化,菌株改进仍然是整个工艺开发努力的重要组成部分。通过应用传统的随机或诱导突变体选择方法和基因组学基因工程方法,可以产生改良菌株。在这里,我将重点放在核糖体蛋白S12的rpsL基因突变的特定类别上,这种突变通常赋予细菌对链霉素的抗性,并上调链霉菌的特殊代谢。这篇综述将描述我们对rpsL突变背后机制的理解的演变,以及技术进步如何改变这些突变被引入感兴趣的基因组的方式。
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