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Bacterial Necromass Is Rapidly Metabolized by Heterotrophic Bacteria and Supports Multiple Trophic Levels of the Groundwater Microbiome.细菌尸体被异养细菌迅速代谢,并为地下水微生物组的多个营养层次提供支持。
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鉴定和培养清除细胞死亡的厌氧细菌。

Identification and cultivation of anaerobic bacterial scavengers of dead cells.

机构信息

Bioproduction Research Institute, National Institute of Advanced Industrial Science and Technology (AIST), Tsukuba, 305-8566, Japan.

Geomicrobiology Research Group, Research Institute for Geo-Resources and Environment, Geological Survey of Japan (GSJ), National Institute of Advanced Industrial Science and Technology (AIST), Tsukuba, 305-8567, Japan.

出版信息

ISME J. 2023 Dec;17(12):2279-2289. doi: 10.1038/s41396-023-01538-2. Epub 2023 Oct 23.

DOI:10.1038/s41396-023-01538-2
PMID:37872273
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC10689501/
Abstract

The cycle of life and death and Earth's carbon cycle(s) are intimately linked, yet how bacterial cells, one of the largest pools of biomass on Earth, are recycled back into the carbon cycle remains enigmatic. In particular, no bacteria capable of scavenging dead cells in oxygen-depleted environments have been reported thus far. In this study, we discover the first anaerobes that scavenge dead cells and the two isolated strains use distinct strategies. Based on live-cell imaging, transmission electron microscopy, and hydrolytic enzyme assays, one strain (designated CYCD) relied on cell-to-cell contact and cell invagination for degrading dead food bacteria where as the other strain (MGCD) degraded dead food bacteria via excretion of lytic extracellular enzymes. Both strains could degrade dead cells of differing taxonomy (bacteria and archaea) and differing extents of cell damage, including those without artificially inflicted physical damage. In addition, both depended on symbiotic metabolic interactions for maximizing cell degradation, representing the first cultured syntrophic Bacteroidota. We collectively revealed multiple symbiotic bacterial decomposition routes of dead prokaryotic cells, providing novel insight into the last step of the carbon cycle.

摘要

生与死的循环和地球的碳循环密切相关,但迄今为止,人们仍然不清楚细菌细胞(地球上最大的生物量之一)是如何被重新循环到碳循环中的。特别是,迄今尚未报道任何能够在缺氧环境中清除死细胞的细菌。在这项研究中,我们发现了第一种能够在缺氧环境中清除死细胞的厌氧菌,并且这两种分离的菌株使用了不同的策略。基于活细胞成像、透射电子显微镜和水解酶分析,一种菌株(命名为 CYCD)依赖于细胞间接触和细胞内陷来降解死亡的食物细菌,而另一种菌株(MGCD)则通过分泌溶细胞外酶来降解死亡的食物细菌。这两种菌株都可以降解具有不同分类(细菌和古菌)和不同程度细胞损伤的死细胞,包括那些没有人工造成物理损伤的细胞。此外,两种菌株都依赖于共生代谢相互作用来最大化细胞降解,这代表了第一个被培养的互养拟杆菌门。我们共同揭示了多种共生细菌对死原核细胞的分解途径,为碳循环的最后一步提供了新的见解。