首页> 美国卫生研究院文献>Philosophical Transactions of the Royal Society B: Biological Sciences >Microbial cytochromes P450: biodiversity and biotechnology. Where do cytochromes P450 come from what do they do and what can they do for us?
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Microbial cytochromes P450: biodiversity and biotechnology. Where do cytochromes P450 come from what do they do and what can they do for us?

机译:微生物细胞色素P450:生物多样性和生物技术。细胞色素P450来自哪里它们做什么?它们能为我们做什么?

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摘要

The first eukaryote genome revealed three yeast cytochromes P450 (CYPs), hence the subsequent realization that some microbial fungal genomes encode these proteins in 1 per cent or more of all genes (greater than 100) has been surprising. They are unique biocatalysts undertaking a wide array of stereo- and regio-specific reactions and so hold promise in many applications. Based on ancestral activities that included 14α-demethylation during sterol biosynthesis, it is now seen that CYPs are part of the genes and metabolism of most eukaryotes. In contrast, Archaea and Eubacteria often do not contain CYPs, while those that do are frequently interesting as producers of natural products undertaking their oxidative tailoring. Apart from roles in primary and secondary metabolism, microbial CYPs are actual/potential targets of drugs/agrochemicals and CYP51 in sterol biosynthesis is exhibiting evolution to resistance in the clinic and the field. Other CYP applications include the first industrial biotransformation for corticosteroid production in the 1950s, the diversion into penicillin synthesis in early mutations in fungal strain improvement and bioremediation using bacteria and fungi. The vast untapped resource of orphan CYPs in numerous genomes is being probed and new methods for discovering function and for discovering desired activities are being investigated.
机译:第一个真核生物基因组揭示了三个酵母细胞色素P450(CYP),因此随后意识到某些微生物真菌基因组在所有基因的1%或更多(大于100)中编码这些蛋白质的现象令人惊讶。它们是独特的生物催化剂,可进行各种立体和区域特异性反应,因此在许多应用中具有广阔的前景。基于在固醇生物合成过程中包括14α-去甲基化的祖先活动,现在可以看到CYP是大多数真核生物基因和代谢的一部分。相比之下,古细菌和真细菌通常不包含CYP,而作为天然产物的生产者进行CYP氧化修饰时,CYP常常很有趣。除了在主要和次要代谢中的作用外,微生物CYP是药物/农药的实际/潜在靶标,并且在固醇生物合成中CYP51在临床和现场表现出对耐药性的进化。 CYP的其他应用包括1950年代首次进行的皮质类固醇生产的工业化生物转化,真菌菌株改良的早期突变和细菌和真菌的生物修复中的青霉素合成转移。正在探索众多基因组中尚未开发的孤儿CYP资源,并且正在研究发现功能和发现所需活性的新方法。

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