Soil-dependent responses of bacterial communities, phosphorus and carbon turnover to uranium stress in different soil ecosystems.
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| Autores principales: | , , , , , , , , , , , |
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| Formato: | Artículo científico |
| Lenguaje: | en |
| Publicado: |
Journal of hazardous materials
2025
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| _version_ | 1868266211787145217 |
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| author | Yu, Huang Zhang, Dandan Xiong, Rui Liu, Shengwei Hu, Ruiwen Chen, Pubo Wu, Xiaoyan Zou, Hantong Hu, Nan Ding, Dexin Yan, Qingyun He, Zhili |
| author_facet | Yu, Huang Zhang, Dandan Xiong, Rui Liu, Shengwei Hu, Ruiwen Chen, Pubo Wu, Xiaoyan Zou, Hantong Hu, Nan Ding, Dexin Yan, Qingyun He, Zhili Yu, Huang Zhang, Dandan Xiong, Rui Liu, Shengwei Hu, Ruiwen Chen, Pubo Wu, Xiaoyan Zou, Hantong Hu, Nan Ding, Dexin Yan, Qingyun He, Zhili |
| collection | PubMed - marine biology |
| contents | Soil-dependent responses of bacterial communities, phosphorus and carbon turnover to uranium stress in different soil ecosystems. Yu, Huang Zhang, Dandan Xiong, Rui Liu, Shengwei Hu, Ruiwen Chen, Pubo Wu, Xiaoyan Zou, Hantong Hu, Nan Ding, Dexin Yan, Qingyun He, Zhili Soil Microbiology Phosphorus Uranium Carbon Bacteria Soil RNA, Ribosomal, 16S Ecosystem Soil Pollutants, Radioactive Uranium (U) can impact microbially driven soil phosphorus (P) and carbon (C) cycling. However, the response of microbial P and C turnover to U in different soils is not well understood. Through the quantitative assay of P pools and soil organic C (SOC) quantitative assay and sequencing of 16S rRNA gene amplicons and metagenomes, we investigated the effect of U on P and C biotransformation in grassland (GL), paddy soil (PY), forest soil (FT). U (60 mg kg) impacted the diversity, interaction and stability of soil bacterial communities, leading to a decrease in available P (AP). Under U stress, organophosphate mineralization substantially contributed to the AP in GL and FT, whereas intracellular P metabolism dominated the AP in PY. Also, the reductive citrate cycle (rTCA cycle) promoted the content of SOC in GL, while the rTCA cycle and complex organic C degradation pathways enhanced the SOC in PY and FT, respectively. Notably, functional bacteria carrying organic C degradation genes could decompose SOC to enhance soil AP. Bacteria developed various resistance strategies to cope with U stress. This study reveals soil-dependent response of microbial P and C cycling and its ecological functions under the influence of radioactive contaminants in different soil systems. |
| format | Artículo científico |
| id | pubmed_40273857 |
| institution | PubMed |
| language | en |
| publishDate | 2025 |
| publisher | Journal of hazardous materials |
| record_format | pubmed |
| spellingShingle | Soil-dependent responses of bacterial communities, phosphorus and carbon turnover to uranium stress in different soil ecosystems. Yu, Huang Zhang, Dandan Xiong, Rui Liu, Shengwei Hu, Ruiwen Chen, Pubo Wu, Xiaoyan Zou, Hantong Hu, Nan Ding, Dexin Yan, Qingyun He, Zhili Soil Microbiology Phosphorus Uranium Carbon Bacteria Soil RNA, Ribosomal, 16S Ecosystem Soil Pollutants, Radioactive Soil-dependent responses of bacterial communities, phosphorus and carbon turnover to uranium stress in different soil ecosystems. Yu, Huang Zhang, Dandan Xiong, Rui Liu, Shengwei Hu, Ruiwen Chen, Pubo Wu, Xiaoyan Zou, Hantong Hu, Nan Ding, Dexin Yan, Qingyun He, Zhili Soil Microbiology Phosphorus Uranium Carbon Bacteria Soil RNA, Ribosomal, 16S Ecosystem Soil Pollutants, Radioactive Uranium (U) can impact microbially driven soil phosphorus (P) and carbon (C) cycling. However, the response of microbial P and C turnover to U in different soils is not well understood. Through the quantitative assay of P pools and soil organic C (SOC) quantitative assay and sequencing of 16S rRNA gene amplicons and metagenomes, we investigated the effect of U on P and C biotransformation in grassland (GL), paddy soil (PY), forest soil (FT). U (60 mg kg) impacted the diversity, interaction and stability of soil bacterial communities, leading to a decrease in available P (AP). Under U stress, organophosphate mineralization substantially contributed to the AP in GL and FT, whereas intracellular P metabolism dominated the AP in PY. Also, the reductive citrate cycle (rTCA cycle) promoted the content of SOC in GL, while the rTCA cycle and complex organic C degradation pathways enhanced the SOC in PY and FT, respectively. Notably, functional bacteria carrying organic C degradation genes could decompose SOC to enhance soil AP. Bacteria developed various resistance strategies to cope with U stress. This study reveals soil-dependent response of microbial P and C cycling and its ecological functions under the influence of radioactive contaminants in different soil systems. |
| title | Soil-dependent responses of bacterial communities, phosphorus and carbon turnover to uranium stress in different soil ecosystems. |
| topic | Soil Microbiology Phosphorus Uranium Carbon Bacteria Soil RNA, Ribosomal, 16S Ecosystem Soil Pollutants, Radioactive |
| url | https://pubmed.ncbi.nlm.nih.gov/40273857/ |