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细菌对化石有机质的风化作用及地下古铜铀矿黑色页岩中有机碳的迁移作用:长期实验室研究。

Bacterial weathering of fossil organic matter and organic carbon mobilization from subterrestrial Kupferschiefer black shale: long-term laboratory studies.

机构信息

Laboratory of Environmental Pollution Analysis, Faculty of Biology, University of Warsaw, Warsaw, 02-096, Poland.

Polish Geological Institute National Research Institute, Wrocław, 53-122, Poland.

出版信息

Environ Microbiol Rep. 2017 Aug;9(4):459-466. doi: 10.1111/1758-2229.12559. Epub 2017 Jun 27.

DOI:10.1111/1758-2229.12559
PMID:28618204
Abstract

A large part of the organic carbon present in the lithosphere is trapped in fossil organic matter deposited in sedimentary rocks. Only specialized microorganisms are able to degrade it contributing to the return of the carbon to the global cycle. The role of bacteria in this process is not yet completely understood. In the present laboratory studies, subterrestrial organic-rich ∼256-million-year-old Kupferschiefer black shale was exposed to the activity of an indigenous consortium of lithobiontic bacteria for 365 days under aerobic conditions. An interdisciplinary research approach was applied, consisting of a detailed comparison of the chemical composition of extractable bitumens as well as resistant to extraction kerogen of the unweathered black shale to that of the bioweathered and chemically weathered, identification of mobilized organic compounds and spectrometry-based determination of proteomic composition of the bacterial biofilm. The oxidative bioweathering of bitumens and kerogen was confirmed. The mobilization of organic carbon in the form of oxidized organic compounds, such as monohydroxy and dihydroxy alcohols, aldehydes, monocarboxylic and dicarboxylic acids and esters due to the microbial activity, was documented. The enzymes crucial for the aerobic metabolism of aliphatic and aromatic hydrocarbons such as monooxygenases and dehydrogenases were identified in the epilithic biofilm inhabiting the black shale.

摘要

岩石圈中存在的很大一部分有机碳被困在沉积岩中沉积的化石有机物质中。只有专门的微生物能够降解它,从而将碳返回全球循环。细菌在这个过程中的作用还不完全清楚。在目前的实验室研究中,地下富含有机质的 ∼2.56 亿年前的库普弗斯页岩在有氧条件下暴露于土著的 lithobiontic 细菌联合体中 365 天。应用了一种跨学科的研究方法,包括对未风化的黑页岩中可提取沥青质以及抗提取干酪根的化学成分进行详细比较,鉴定出可移动的有机化合物,并基于光谱法测定细菌生物膜的蛋白质组组成。确认了沥青质和干酪根的氧化生物风化。由于微生物活动,以氧化有机化合物(如单羟基和二羟基醇、醛、单羧酸和二羧酸以及酯)的形式动员有机碳,这一点得到了证明。在栖息于黑页岩的epilithic 生物膜中鉴定出了对于脂肪族和芳香族烃的有氧代谢至关重要的酶,如单加氧酶和脱氢酶。

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