Differential response of subterranean microbiome to exogenous organic matter input in a cave ecosystem

As a recurrent climatic phenomenon in the context of climate change, extreme rainstorms induce vertical translocation of organic matter and increase moisture content in terrestrial ecosystems. However, it remains unclear whether heavy rainstorms can impact microbial communities in the deep biosphere...

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Veröffentlicht in:The Science of the total environment 2024-12, Vol.954, p.176584, Article 176584
Hauptverfasser: Cheng, Xiaoyu, Zhao, Rui, Bodelier, Paul L.E., Song, Yuyang, Yang, Kang, Tuovinen, Olli H., Wang, Hongmei
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container_title The Science of the total environment
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creator Cheng, Xiaoyu
Zhao, Rui
Bodelier, Paul L.E.
Song, Yuyang
Yang, Kang
Tuovinen, Olli H.
Wang, Hongmei
description As a recurrent climatic phenomenon in the context of climate change, extreme rainstorms induce vertical translocation of organic matter and increase moisture content in terrestrial ecosystems. However, it remains unclear whether heavy rainstorms can impact microbial communities in the deep biosphere by modulating organic matter input. In this study, we present findings on the different responses of bacterial and fungal communities in a subsurface cave to rainstorms and moisture variations through field surveys and microcosm experiments. During periods of rainstorms, the influx of dissolved organic matter (DOM) from soil overlying the cave into cave sediments significantly enhanced the correlation between core bacteria and environmental factors, particularly fluorescence spectral indices. The resource utilization of core bacteria was diminished, while the functional diversity of core fungi remained relatively unaltered. We also performed simulated experiments with restricted external DOM inputs, in which DOM content was observed to decrease and microbial diversity increase in response to artificially increased moisture content (MC). The niche breadth of core bacteria decreased and became more closely associated with DOM as the MC increased, while the niche breadth of core fungi remained predominantly unchanged. Compared to fungi, cave bacteria exhibited higher sensitivity towards variations in DOM. The core microbiome can efficiently utilize the available organic matter and participate in nitrogen- and sulfur-related metabolic processes. The study systematically revealed distinct microbial responses to rainstorm events, thereby providing valuable insights for future investigations into energy utilization within deep biospheres. [Display omitted] •The effect of rainstorm on DOM and microbiome in the deep biosphere is uncertain.•Cave sediments offer natural sites for studying the influx of DOM via drip water.•The correlation between DOM influx and the cave's core microbiome was significant.•The core bacteria showed higher sensitivity to variations in DOM compared to fungi.•The core microbiome engaged in nitrogen and sulfur metabolism while utilizing DOM.
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subjects Bacteria - metabolism
biosphere
Cave sediment
Caves - microbiology
Climate Change
Dissolved organic matter
Ecosystem
ecosystems
energy
fluorescence
functional diversity
Fungi
Microbial ecology
microbiome
Microbiota
Niche breadth
Rainstorm
soil
Soil Microbiology
Subterranean ecosystem
water content
title Differential response of subterranean microbiome to exogenous organic matter input in a cave ecosystem
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