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Metagenomic analysis of the gut microbiome of the common black slug Arion ater in search of novel lignocellulose degrading enzymes

机译:寻找新型木质纤维素降解酶的常见黑blackArion ater肠道微生物组的元基因组分析

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摘要

Some eukaryotes are able to gain access to well-protected carbon sources in plant biomass by exploiting microorganisms in the environment or harbored in their digestive system. One is the land pulmonate , which takes advantage of a gut microbial consortium that can break down the widely available, but difficult to digest, carbohydrate polymers in lignocellulose, enabling them to digest a broad range of fresh and partially degraded plant material efficiently. This ability is considered one of the major factors that have enabled to become one of the most widespread plant pest species in Western Europe and North America. Using metagenomic techniques we have characterized the bacterial diversity and functional capability of the gut microbiome of this notorious agricultural pest. Analysis of gut metagenomic community sequences identified abundant populations of known lignocellulose-degrading bacteria, along with well-characterized bacterial plant pathogens. This also revealed a repertoire of more than 3,383 carbohydrate active enzymes (CAZymes) including multiple enzymes associated with lignin degradation, demonstrating a microbial consortium capable of degradation of all components of lignocellulose. This would allow to make extensive use of plant biomass as a source of nutrients through exploitation of the enzymatic capabilities of the gut microbial consortia. From this metagenome assembly we also demonstrate the successful amplification of multiple predicted gene sequences from metagenomic DNA subjected to whole genome amplification and expression of functional proteins, facilitating the low cost acquisition and biochemical testing of the many thousands of novel genes identified in metagenomics studies. These findings demonstrate the importance of studying Gastropod microbial communities. Firstly, with respect to understanding links between feeding and evolutionary success and, secondly, as sources of novel enzymes with biotechnological potential, such as, CAZYmes that could be used in the production of biofuel.
机译:一些真核生物能够通过利用环境中或它们的消化系统中的微生物来获得植物生物质中受到良好保护的碳源。一种是土地肺酸盐,它利用肠道微生物联盟的优势,可以分解木质纤维素中广泛存在但难以消化的碳水化合物聚合物,从而使它们能够有效地消化各种新鲜的和部分降解的植物材料。这种能力被认为是已成为西欧和北美最广泛的植物害虫物种之一的主要因素之一。使用宏基因组学技术,我们已经表征了这种臭名昭著的农业害虫的肠道微生物组的细菌多样性和功能能力。肠道宏基因组学社区序列分析确定了已知的降解木质纤维素的细菌的丰富种群,以及特征明确的细菌植物病原体。这也揭示了超过3,383种碳水化合物活性酶(CAZymes)的库,包括与木质素降解相关的多种酶,证明了能够降解木质纤维素所有成分的微生物联盟。通过利用肠道微生物联盟的酶促能力,这将允许广泛利用植物生物质作为养分来源。从这个元基因组装配中,我们还证明了从宏基因组DNA中成功扩增了多个预测基因序列,这些宏基因组DNA经历了全基因组扩增和功能蛋白的表达,从而促进了宏基因组学研究中鉴定的成千上万个新基因的低成本采集和生化测试。这些发现证明了研究腹足纲微生物群落的重要性。首先,在理解饲养和进化成功之间的联系方面,其次,作为具有生物技术潜力的新型酶的来源,例如可用于生产生物燃料的CAZYmes。

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