Microplastic pollution promotes soil respiration: A global‐scale meta‐analysis

Microplastic (MP) pollution likely affects global soil carbon (C) dynamics, yet it remains uncertain how and to what extent MP influences soil respiration. Here, we report on a global meta‐analysis to determine the effects of MP pollution on the soil microbiome and CO2 emission. We found that MP pol...

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Published inGlobal change biology Vol. 30; no. 7; pp. e17415 - n/a
Main Authors Zhao, Shuling, Rillig, Matthias C., Bing, Haijian, Cui, Qingliang, Qiu, Tianyi, Cui, Yongxing, Penuelas, Josep, Liu, Baiyan, Bian, Shiqi, Monikh, Fazel Abdolahpur, Chen, Jing, Fang, Linchuan
Format Journal Article
LanguageEnglish
Published England Blackwell Publishing Ltd 01.07.2024
Subjects
Autotrophic microorganisms
Biomass
Carbon - analysis
Carbon - metabolism
Carbon dioxide
Carbon Dioxide - analysis
Carbon Dioxide - metabolism
Carbon dioxide emissions
Chloroflexi
climate
Components
Cyanobacteria
Dissolved organic carbon
Emission analysis
Fluorescein diacetate
global change
global climate change
Heterotrophic microorganisms
hydrolases
Meta-analysis
microbial biomass
Microbiomes
Microbiota - drug effects
Microorganisms
Microplastic pollution
Microplastics
Microplastics - analysis
Plastic debris
Plastic pollution
pollution
Respiration
Soil
Soil - chemistry
Soil analysis
Soil bacteria
soil CO2 emission
soil enzyme activities
Soil Microbiology
Soil microorganisms
soil organic C
soil organic carbon
Soil Pollutants - analysis
Soil pollution
soil respiration
Soils
Substrate inhibition
soil enzyme activities
soil microorganisms
soil CO2 emission
global climate change
microplastics
soil organic C
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Abstract Microplastic (MP) pollution likely affects global soil carbon (C) dynamics, yet it remains uncertain how and to what extent MP influences soil respiration. Here, we report on a global meta‐analysis to determine the effects of MP pollution on the soil microbiome and CO2 emission. We found that MP pollution significantly increased the contents of soil organic C (SOC) (21%) and dissolved organic C (DOC) (12%), the activity of fluorescein diacetate hydrolase (FDAse) (10%), and microbial biomass (17%), but led to a decrease in microbial diversity (3%). In particular, increases in soil C components and microbial biomass further promote CO2 emission (25%) from soil, but with a much higher effect of MPs on these emissions than on soil C components and microbial biomass. The effect could be attributed to the opposite effects of MPs on microbial biomass vs. diversity, as soil MP accumulation recruited some functionally important bacteria and provided additional C substrates for specific heterotrophic microorganisms, while inhibiting the growth of autotrophic taxa (e.g., Chloroflexi, Cyanobacteria). This study reveals that MP pollution can increase soil CO2 emission by causing shifts in the soil microbiome. These results underscore the potential importance of plastic pollution for terrestrial C fluxes, and thus climate feedbacks. Microplastic (MP) pollution is a significant global environmental challenge with the potential to impact soil carbon dynamics, necessitating a systematic assessment of its effects on soil respiration. We provide evidence that MPs increased the soil C pool (in part very likely because plastic‐carbon was captured as soil C) and microbial biomass thereby promoting soil CO2 emission. This study enhances our understanding of how MPs influence soil CO2 emissions by regulating the soil microbiome and underscores potential feedback mechanisms related to climate impacts at the Earth system level, thereby providing guidance for future research and policy development.
AbstractList Microplastic (MP) pollution likely affects global soil carbon (C) dynamics, yet it remains uncertain how and to what extent MP influences soil respiration. Here, we report on a global meta‐analysis to determine the effects of MP pollution on the soil microbiome and CO2 emission. We found that MP pollution significantly increased the contents of soil organic C (SOC) (21%) and dissolved organic C (DOC) (12%), the activity of fluorescein diacetate hydrolase (FDAse) (10%), and microbial biomass (17%), but led to a decrease in microbial diversity (3%). In particular, increases in soil C components and microbial biomass further promote CO2 emission (25%) from soil, but with a much higher effect of MPs on these emissions than on soil C components and microbial biomass. The effect could be attributed to the opposite effects of MPs on microbial biomass vs. diversity, as soil MP accumulation recruited some functionally important bacteria and provided additional C substrates for specific heterotrophic microorganisms, while inhibiting the growth of autotrophic taxa (e.g., Chloroflexi, Cyanobacteria). This study reveals that MP pollution can increase soil CO2 emission by causing shifts in the soil microbiome. These results underscore the potential importance of plastic pollution for terrestrial C fluxes, and thus climate feedbacks.
Microplastic (MP) pollution likely affects global soil carbon (C) dynamics, yet it remains uncertain how and to what extent MP influences soil respiration. Here, we report on a global meta-analysis to determine the effects of MP pollution on the soil microbiome and CO emission. We found that MP pollution significantly increased the contents of soil organic C (SOC) (21%) and dissolved organic C (DOC) (12%), the activity of fluorescein diacetate hydrolase (FDAse) (10%), and microbial biomass (17%), but led to a decrease in microbial diversity (3%). In particular, increases in soil C components and microbial biomass further promote CO emission (25%) from soil, but with a much higher effect of MPs on these emissions than on soil C components and microbial biomass. The effect could be attributed to the opposite effects of MPs on microbial biomass vs. diversity, as soil MP accumulation recruited some functionally important bacteria and provided additional C substrates for specific heterotrophic microorganisms, while inhibiting the growth of autotrophic taxa (e.g., Chloroflexi, Cyanobacteria). This study reveals that MP pollution can increase soil CO emission by causing shifts in the soil microbiome. These results underscore the potential importance of plastic pollution for terrestrial C fluxes, and thus climate feedbacks.
Microplastic (MP) pollution likely affects global soil carbon (C) dynamics, yet it remains uncertain how and to what extent MP influences soil respiration. Here, we report on a global meta-analysis to determine the effects of MP pollution on the soil microbiome and CO2 emission. We found that MP pollution significantly increased the contents of soil organic C (SOC) (21%) and dissolved organic C (DOC) (12%), the activity of fluorescein diacetate hydrolase (FDAse) (10%), and microbial biomass (17%), but led to a decrease in microbial diversity (3%). In particular, increases in soil C components and microbial biomass further promote CO2 emission (25%) from soil, but with a much higher effect of MPs on these emissions than on soil C components and microbial biomass. The effect could be attributed to the opposite effects of MPs on microbial biomass vs. diversity, as soil MP accumulation recruited some functionally important bacteria and provided additional C substrates for specific heterotrophic microorganisms, while inhibiting the growth of autotrophic taxa (e.g., Chloroflexi, Cyanobacteria). This study reveals that MP pollution can increase soil CO2 emission by causing shifts in the soil microbiome. These results underscore the potential importance of plastic pollution for terrestrial C fluxes, and thus climate feedbacks.Microplastic (MP) pollution likely affects global soil carbon (C) dynamics, yet it remains uncertain how and to what extent MP influences soil respiration. Here, we report on a global meta-analysis to determine the effects of MP pollution on the soil microbiome and CO2 emission. We found that MP pollution significantly increased the contents of soil organic C (SOC) (21%) and dissolved organic C (DOC) (12%), the activity of fluorescein diacetate hydrolase (FDAse) (10%), and microbial biomass (17%), but led to a decrease in microbial diversity (3%). In particular, increases in soil C components and microbial biomass further promote CO2 emission (25%) from soil, but with a much higher effect of MPs on these emissions than on soil C components and microbial biomass. The effect could be attributed to the opposite effects of MPs on microbial biomass vs. diversity, as soil MP accumulation recruited some functionally important bacteria and provided additional C substrates for specific heterotrophic microorganisms, while inhibiting the growth of autotrophic taxa (e.g., Chloroflexi, Cyanobacteria). This study reveals that MP pollution can increase soil CO2 emission by causing shifts in the soil microbiome. These results underscore the potential importance of plastic pollution for terrestrial C fluxes, and thus climate feedbacks.
Microplastic (MP) pollution likely affects global soil carbon (C) dynamics, yet it remains uncertain how and to what extent MP influences soil respiration. Here, we report on a global meta‐analysis to determine the effects of MP pollution on the soil microbiome and CO₂ emission. We found that MP pollution significantly increased the contents of soil organic C (SOC) (21%) and dissolved organic C (DOC) (12%), the activity of fluorescein diacetate hydrolase (FDAse) (10%), and microbial biomass (17%), but led to a decrease in microbial diversity (3%). In particular, increases in soil C components and microbial biomass further promote CO₂ emission (25%) from soil, but with a much higher effect of MPs on these emissions than on soil C components and microbial biomass. The effect could be attributed to the opposite effects of MPs on microbial biomass vs. diversity, as soil MP accumulation recruited some functionally important bacteria and provided additional C substrates for specific heterotrophic microorganisms, while inhibiting the growth of autotrophic taxa (e.g., Chloroflexi, Cyanobacteria). This study reveals that MP pollution can increase soil CO₂ emission by causing shifts in the soil microbiome. These results underscore the potential importance of plastic pollution for terrestrial C fluxes, and thus climate feedbacks.
Microplastic (MP) pollution likely affects global soil carbon (C) dynamics, yet it remains uncertain how and to what extent MP influences soil respiration. Here, we report on a global meta‐analysis to determine the effects of MP pollution on the soil microbiome and CO 2 emission. We found that MP pollution significantly increased the contents of soil organic C (SOC) (21%) and dissolved organic C (DOC) (12%), the activity of fluorescein diacetate hydrolase (FDAse) (10%), and microbial biomass (17%), but led to a decrease in microbial diversity (3%). In particular, increases in soil C components and microbial biomass further promote CO 2 emission (25%) from soil, but with a much higher effect of MPs on these emissions than on soil C components and microbial biomass. The effect could be attributed to the opposite effects of MPs on microbial biomass vs. diversity, as soil MP accumulation recruited some functionally important bacteria and provided additional C substrates for specific heterotrophic microorganisms, while inhibiting the growth of autotrophic taxa (e.g., Chloroflexi , Cyanobacteria ). This study reveals that MP pollution can increase soil CO 2 emission by causing shifts in the soil microbiome. These results underscore the potential importance of plastic pollution for terrestrial C fluxes, and thus climate feedbacks.
Microplastic (MP) pollution likely affects global soil carbon (C) dynamics, yet it remains uncertain how and to what extent MP influences soil respiration. Here, we report on a global meta‐analysis to determine the effects of MP pollution on the soil microbiome and CO2 emission. We found that MP pollution significantly increased the contents of soil organic C (SOC) (21%) and dissolved organic C (DOC) (12%), the activity of fluorescein diacetate hydrolase (FDAse) (10%), and microbial biomass (17%), but led to a decrease in microbial diversity (3%). In particular, increases in soil C components and microbial biomass further promote CO2 emission (25%) from soil, but with a much higher effect of MPs on these emissions than on soil C components and microbial biomass. The effect could be attributed to the opposite effects of MPs on microbial biomass vs. diversity, as soil MP accumulation recruited some functionally important bacteria and provided additional C substrates for specific heterotrophic microorganisms, while inhibiting the growth of autotrophic taxa (e.g., Chloroflexi, Cyanobacteria). This study reveals that MP pollution can increase soil CO2 emission by causing shifts in the soil microbiome. These results underscore the potential importance of plastic pollution for terrestrial C fluxes, and thus climate feedbacks. Microplastic (MP) pollution is a significant global environmental challenge with the potential to impact soil carbon dynamics, necessitating a systematic assessment of its effects on soil respiration. We provide evidence that MPs increased the soil C pool (in part very likely because plastic‐carbon was captured as soil C) and microbial biomass thereby promoting soil CO2 emission. This study enhances our understanding of how MPs influence soil CO2 emissions by regulating the soil microbiome and underscores potential feedback mechanisms related to climate impacts at the Earth system level, thereby providing guidance for future research and policy development.
Author Bian, Shiqi
Zhao, Shuling
Rillig, Matthias C.
Monikh, Fazel Abdolahpur
Fang, Linchuan
Bing, Haijian
Liu, Baiyan
Qiu, Tianyi
Cui, Qingliang
Cui, Yongxing
Penuelas, Josep
Chen, Jing
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Fri Jul 25 19:35:23 EDT 2025
Wed Feb 19 02:01:28 EST 2025
Thu Apr 24 22:58:40 EDT 2025
Tue Jul 01 05:13:52 EDT 2025
Sun Jul 06 04:45:34 EDT 2025
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Keywords soil enzyme activities
soil microorganisms
soil CO2 emission
global climate change
microplastics
soil organic C
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Snippet Microplastic (MP) pollution likely affects global soil carbon (C) dynamics, yet it remains uncertain how and to what extent MP influences soil respiration....
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SubjectTerms Autotrophic microorganisms
Biomass
Carbon - analysis
Carbon - metabolism
Carbon dioxide
Carbon Dioxide - analysis
Carbon Dioxide - metabolism
Carbon dioxide emissions
Chloroflexi
climate
Components
Cyanobacteria
Dissolved organic carbon
Emission analysis
Fluorescein diacetate
global change
global climate change
Heterotrophic microorganisms
hydrolases
Meta-analysis
microbial biomass
Microbiomes
Microbiota - drug effects
Microorganisms
Microplastic pollution
Microplastics
Microplastics - analysis
Plastic debris
Plastic pollution
pollution
Respiration
Soil
Soil - chemistry
Soil analysis
Soil bacteria
soil CO2 emission
soil enzyme activities
Soil Microbiology
Soil microorganisms
soil organic C
soil organic carbon
Soil Pollutants - analysis
Soil pollution
soil respiration
Soils
Substrate inhibition
Title Microplastic pollution promotes soil respiration: A global‐scale meta‐analysis
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fgcb.17415
https://www.ncbi.nlm.nih.gov/pubmed/39005227
https://www.proquest.com/docview/3085621769
https://www.proquest.com/docview/3080635240
https://www.proquest.com/docview/3153705877
Volume 30
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