Tracing active members in microbial communities by BONCAT and click chemistry-based enrichment of newly synthesized proteins.

IF 5.1 Q1 ECOLOGY ISME communications Pub Date : 2024-12-04 eCollection Date: 2024-01-01 DOI:10.1093/ismeco/ycae153
Patrick Hellwig, Daniel Kautzner, Robert Heyer, Anna Dittrich, Daniel Wibberg, Tobias Busche, Anika Winkler, Udo Reichl, Dirk Benndorf
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Abstract

A comprehensive understanding of microbial community dynamics is fundamental to the advancement of environmental microbiology, human health, and biotechnology. Metaproteomics, defined as the analysis of all proteins present within a microbial community, provides insights into these complex systems. Microbial adaptation and activity depend to an important extent on newly synthesized proteins (nP), however, the distinction between nP and bulk proteins is challenging. The application of BONCAT with click chemistry has demonstrated efficacy in the enrichment of nP in pure cultures for proteomics. However, the transfer of this technique to microbial communities and metaproteomics has proven challenging and thus it has not not been used on microbial communities before. To address this, a new workflow with efficient and specific nP enrichment was developed using a laboratory-scale mixture of labelled Escherichia coli and unlabeled yeast. This workflow was then successfully applied to an anaerobic microbial community with initially low bioorthogonal non-canonical amino acid tagging efficiency. A substrate shift from glucose to ethanol selectively enriched nP with minimal background. The identification of bifunctional alcohol dehydrogenase and a syntrophic interaction between an ethanol-utilizing bacterium and two methanogens (hydrogenotrophic and acetoclastic) demonstrates the potential of metaproteomics targeting nP to trace microbial activity in complex microbial communities.

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通过BONCAT追踪微生物群落中的活性成员,并点击基于化学的新合成蛋白质富集。
对微生物群落动态的全面了解是环境微生物学、人类健康和生物技术进步的基础。宏蛋白质组学被定义为对微生物群落中存在的所有蛋白质的分析,提供了对这些复杂系统的见解。微生物的适应性和活性在很大程度上取决于新合成的蛋白质(nP),然而,nP和散装蛋白质的区别是具有挑战性的。BONCAT与click化学的应用已经证明了在蛋白质组学纯培养物中富集nP的有效性。然而,将这种技术转移到微生物群落和宏蛋白质组学已被证明是具有挑战性的,因此之前还没有在微生物群落中使用过。为了解决这个问题,利用实验室规模的标记大肠杆菌和未标记酵母的混合物,开发了一种高效和特异性nP富集的新工作流程。该工作流程随后成功应用于厌氧微生物群落,最初具有低生物正交非规范氨基酸标记效率。底物从葡萄糖转移到乙醇选择性富集nP与最小的背景。双功能醇脱氢酶的鉴定以及利用乙醇的细菌与两种产甲烷菌(氢化菌和醋酸菌)之间的共生相互作用证明了宏蛋白质组学靶向nP在复杂微生物群落中追踪微生物活性的潜力。
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