Insights into soil autotrophic ammonium oxidization under microplastics stress: Crossroads of nitrification, comammox, anammox and Feammox

Microplastics (MPs) are widespread in agroecosystems and profoundly impact soil microbiome and nutrient cycling. However, the effects of MPs on soil autotrophic ammonium oxidization processes, including nitrification, complete ammonium oxidation (comammox), anaerobic ammonium oxidation (anammox), an...

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Veröffentlicht in:Journal of hazardous materials 2024-10, Vol.478, p.135443, Article 135443
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Li, Zhengkui
description Microplastics (MPs) are widespread in agroecosystems and profoundly impact soil microbiome and nutrient cycling. However, the effects of MPs on soil autotrophic ammonium oxidization processes, including nitrification, complete ammonium oxidation (comammox), anaerobic ammonium oxidation (anammox), and anaerobic ammonium oxidation coupled to iron reduction (Feammox), remain unclear. These processes are the rate-limiting steps of nitrogen cycling in agroecosystems. Here, our work unveiled that exposures of polyethylene (PE), polypropylene (PP), polylactic acid (PLA), and polybutylene adipate terephthalate (PBAT) MPs significantly modulated ammonium oxidization pathways with distinct type- and dose-dependent effects. Nitrification remained the main contributor (56.4–70.7 %) to soil ammonium removal, followed by comammox (11.7–25.6 %), anammox (5.0–20.2 %) and Feammox (3.3–11.6 %). Compared with conventional nonbiodegradable MPs (i.e., PE and PP), biodegradable MPs (i.e., PLA and PBAT) exhibited more pronounced impacts on soil nutrient conditions and functional microbes, which collectively induced alterations in soil ammonium oxidation. Interestingly, low-dose PLA and PBAT remarkably enhanced the roles of anammox and Feammox in soil ammonium removal, contributing to the mitigation of soil acidification in agroecosystems. This study highlights the diverse responses of ammonium oxidization pathways to MPs, further deepening our understanding of how MPs affect biogeochemical cycling and enriching strategies for agricultural managements amid increasing MPs pollution. [Display omitted] •Impacts of MPs on soil autotrophic ammonium oxidization processes were explored.•MPs regulated soil ammonium oxidization pathways with distinct type- and dose-effect.•Biodegradable MPs impacted soil properties and functional microbes more profoundly.•MPs modulated nitrification, comammox, anammox, and Feammox via varied mechanisms.•Adoption of PLA/PBAT mulching films contributes to alleviating soil acidification.
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Compared with conventional nonbiodegradable MPs (i.e., PE and PP), biodegradable MPs (i.e., PLA and PBAT) exhibited more pronounced impacts on soil nutrient conditions and functional microbes, which collectively induced alterations in soil ammonium oxidation. Interestingly, low-dose PLA and PBAT remarkably enhanced the roles of anammox and Feammox in soil ammonium removal, contributing to the mitigation of soil acidification in agroecosystems. This study highlights the diverse responses of ammonium oxidization pathways to MPs, further deepening our understanding of how MPs affect biogeochemical cycling and enriching strategies for agricultural managements amid increasing MPs pollution. [Display omitted] •Impacts of MPs on soil autotrophic ammonium oxidization processes were explored.•MPs regulated soil ammonium oxidization pathways with distinct type- and dose-effect.•Biodegradable MPs impacted soil properties and functional microbes more profoundly.•MPs modulated nitrification, comammox, anammox, and Feammox via varied mechanisms.•Adoption of PLA/PBAT mulching films contributes to alleviating soil acidification.</description><identifier>ISSN: 0304-3894</identifier><identifier>ISSN: 1873-3336</identifier><identifier>EISSN: 1873-3336</identifier><identifier>DOI: 10.1016/j.jhazmat.2024.135443</identifier><identifier>PMID: 39128156</identifier><language>eng</language><publisher>Netherlands: Elsevier B.V</publisher><subject>Agricultural managements ; agroecosystems ; ammonium ; Ammonium oxidization pathways ; Ammonium-oxidizing bacteria ; anaerobic ammonium oxidation ; biodegradability ; dose response ; microplastics ; Microplastics exposures ; nitrogen ; oxidation ; pollution ; polyethylene ; polylactic acid ; polypropylenes ; soil ; soil acidification ; soil microorganisms ; Soil nutrient conditions ; soil nutrients</subject><ispartof>Journal of hazardous materials, 2024-10, Vol.478, p.135443, Article 135443</ispartof><rights>2024 Elsevier B.V.</rights><rights>Copyright © 2024 Elsevier B.V. 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However, the effects of MPs on soil autotrophic ammonium oxidization processes, including nitrification, complete ammonium oxidation (comammox), anaerobic ammonium oxidation (anammox), and anaerobic ammonium oxidation coupled to iron reduction (Feammox), remain unclear. These processes are the rate-limiting steps of nitrogen cycling in agroecosystems. Here, our work unveiled that exposures of polyethylene (PE), polypropylene (PP), polylactic acid (PLA), and polybutylene adipate terephthalate (PBAT) MPs significantly modulated ammonium oxidization pathways with distinct type- and dose-dependent effects. Nitrification remained the main contributor (56.4–70.7 %) to soil ammonium removal, followed by comammox (11.7–25.6 %), anammox (5.0–20.2 %) and Feammox (3.3–11.6 %). Compared with conventional nonbiodegradable MPs (i.e., PE and PP), biodegradable MPs (i.e., PLA and PBAT) exhibited more pronounced impacts on soil nutrient conditions and functional microbes, which collectively induced alterations in soil ammonium oxidation. Interestingly, low-dose PLA and PBAT remarkably enhanced the roles of anammox and Feammox in soil ammonium removal, contributing to the mitigation of soil acidification in agroecosystems. This study highlights the diverse responses of ammonium oxidization pathways to MPs, further deepening our understanding of how MPs affect biogeochemical cycling and enriching strategies for agricultural managements amid increasing MPs pollution. 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Compared with conventional nonbiodegradable MPs (i.e., PE and PP), biodegradable MPs (i.e., PLA and PBAT) exhibited more pronounced impacts on soil nutrient conditions and functional microbes, which collectively induced alterations in soil ammonium oxidation. Interestingly, low-dose PLA and PBAT remarkably enhanced the roles of anammox and Feammox in soil ammonium removal, contributing to the mitigation of soil acidification in agroecosystems. This study highlights the diverse responses of ammonium oxidization pathways to MPs, further deepening our understanding of how MPs affect biogeochemical cycling and enriching strategies for agricultural managements amid increasing MPs pollution. 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subjects Agricultural managements
agroecosystems
ammonium
Ammonium oxidization pathways
Ammonium-oxidizing bacteria
anaerobic ammonium oxidation
biodegradability
dose response
microplastics
Microplastics exposures
nitrogen
oxidation
pollution
polyethylene
polylactic acid
polypropylenes
soil
soil acidification
soil microorganisms
Soil nutrient conditions
soil nutrients
title Insights into soil autotrophic ammonium oxidization under microplastics stress: Crossroads of nitrification, comammox, anammox and Feammox
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