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系统生物学视角下嗜热菌对植物生物质的水解作用

Insights into Thermophilic Plant Biomass Hydrolysis from Systems Biology.

作者信息

Blumer-Schuette Sara E

机构信息

Department of Biological Sciences, Oakland University, Rochester, MI 48309, USA.

出版信息

Microorganisms. 2020 Mar 10;8(3):385. doi: 10.3390/microorganisms8030385.

Abstract

Plant polysaccharides continue to serve as a promising feedstock for bioproduct fermentation. However, the recalcitrant nature of plant biomass requires certain key enzymes, including cellobiohydrolases, for efficient solubilization of polysaccharides. Thermostable carbohydrate-active enzymes are sought for their stability and tolerance to other process parameters. Plant biomass degrading microbes found in biotopes like geothermally heated water sources, compost piles, and thermophilic digesters are a common source of thermostable enzymes. While traditional thermophilic enzyme discovery first focused on microbe isolation followed by functional characterization, metagenomic sequences are negating the initial need for species isolation. Here, we summarize the current state of knowledge about the extremely thermophilic genus , including genomic and metagenomic analyses in addition to recent breakthroughs in enzymology and genetic manipulation of the genus. Ten years after completing the first genome sequence, the tools required for systems biology of this non-model environmental microorganism are in place.

摘要

植物多糖仍然是生物产品发酵的一种有前景的原料。然而,植物生物质的顽固性质需要某些关键酶,包括纤维二糖水解酶,以实现多糖的有效溶解。人们寻求热稳定的碳水化合物活性酶,因其稳定性和对其他工艺参数的耐受性。在诸如地热水源、堆肥堆和嗜热消化器等生物群落中发现的植物生物质降解微生物是热稳定酶的常见来源。虽然传统的嗜热酶发现首先侧重于微生物分离,然后进行功能表征,但宏基因组序列正在消除最初对物种分离的需求。在这里,我们总结了关于这个极端嗜热属的当前知识状态,包括基因组和宏基因组分析,以及该属在酶学和基因操作方面的最新突破。在完成第一个基因组序列十年后,这种非模式环境微生物的系统生物学所需的工具已经到位。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/4aa6/7142884/a1921e37224a/microorganisms-08-00385-g001.jpg

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