Mitigating Greenhouse Gas and Ammonia Emissions from Swine Manure Management: A System Analysis

Gaseous emissions from animal manure are considerable contributor to global ammonia (NH3) and agriculture greenhouse gas (GHG) emissions. Given the demand to promote mitigation of GHGs while fostering sustainable development of the Paris Agreement, an improvement of management systems is urgently ne...

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Published inEnvironmental science & technology Vol. 51; no. 8; pp. 4503 - 4511
Main Authors Wang, Yue, Dong, Hongmin, Zhu, Zhiping, Gerber, Pierre J, Xin, Hongwei, Smith, Pete, Opio, Carolyn, Steinfeld, Henning, Chadwick, Dave
Format Journal Article
LanguageEnglish
Published United States American Chemical Society 18.04.2017
Subjects
Agricultural industry
Air Pollutants
Air quality
Ammonia
animal manure management
Animal Production Systems
Animals
Australia
China
Climate Change
Climate change mitigation
Dierlijke Productiesystemen
Emission measurements
Emissions
Emissions control
emissions factor
European Union
France
Gases
Germany
Greenhouse Effect
greenhouse gas emissions
Greenhouse gases
Hogs
Leerstoelgroep Dierlijke productiesystemen
Management systems
Manure
Manures
meta-analysis
Methane
Nitrous Oxide
Outdoor air quality
Paris Agreement
Pig manure
Reduction
Sustainable development
Swine
Swine production
Systems analysis
Australia
France
China
Germany
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Abstract Gaseous emissions from animal manure are considerable contributor to global ammonia (NH3) and agriculture greenhouse gas (GHG) emissions. Given the demand to promote mitigation of GHGs while fostering sustainable development of the Paris Agreement, an improvement of management systems is urgently needed to help mitigate climate change and to improve atmospheric air quality. This study presents a meta-analysis and an integrated assessment of gaseous emissions and mitigation potentials for NH3, methane (CH4), and nitrous oxide (N2O) (direct and indirect) losses from four typical swine manure management systems (MMSs). The resultant emission factors and mitigation efficiencies allow GHG and NH3 emissions to be estimated, as well as mitigation potentials for different stages of swine operation. In particular, changing swine manure management from liquid systems to solid–liquid separation systems, coupled with mitigation measures, could simultaneously reduce GHG emissions by 65% and NH3 emissions by 78%. The resultant potential reduction in GHG emissions from China’s pig production alone is greater than the entire GHG emissions from agricultural sector of France, Australia, or Germany, while the reduction in NH3 emissions is equivalent to 40% of the total NH3 emissions from the European Union. Thus, improved swine manure management could have a significant impact on global environment issues.
AbstractList Gaseous emissions from animal manure are considerable contributor to global ammonia (NH3) and agriculture greenhouse gas (GHG) emissions. Given the demand to promote mitigation of GHGs while fostering sustainable development of the Paris Agreement, an improvement of management systems is urgently needed to help mitigate climate change and to improve atmospheric air quality. This study presents a meta-analysis and an integrated assessment of gaseous emissions and mitigation potentials for NH3, methane (CH4), and nitrous oxide (N2O) (direct and indirect) losses from four typical swine manure management systems (MMSs). The resultant emission factors and mitigation efficiencies allow GHG and NH3 emissions to be estimated, as well as mitigation potentials for different stages of swine operation. In particular, changing swine manure management from liquid systems to solid-liquid separation systems, coupled with mitigation measures, could simultaneously reduce GHG emissions by 65% and NH3 emissions by 78%. The resultant potential reduction in GHG emissions from China's pig production alone is greater than the entire GHG emissions from agricultural sector of France, Australia, or Germany, while the reduction in NH3 emissions is equivalent to 40% of the total NH3 emissions from the European Union. Thus, improved swine manure management could have a significant impact on global environment issues.Gaseous emissions from animal manure are considerable contributor to global ammonia (NH3) and agriculture greenhouse gas (GHG) emissions. Given the demand to promote mitigation of GHGs while fostering sustainable development of the Paris Agreement, an improvement of management systems is urgently needed to help mitigate climate change and to improve atmospheric air quality. This study presents a meta-analysis and an integrated assessment of gaseous emissions and mitigation potentials for NH3, methane (CH4), and nitrous oxide (N2O) (direct and indirect) losses from four typical swine manure management systems (MMSs). The resultant emission factors and mitigation efficiencies allow GHG and NH3 emissions to be estimated, as well as mitigation potentials for different stages of swine operation. In particular, changing swine manure management from liquid systems to solid-liquid separation systems, coupled with mitigation measures, could simultaneously reduce GHG emissions by 65% and NH3 emissions by 78%. The resultant potential reduction in GHG emissions from China's pig production alone is greater than the entire GHG emissions from agricultural sector of France, Australia, or Germany, while the reduction in NH3 emissions is equivalent to 40% of the total NH3 emissions from the European Union. Thus, improved swine manure management could have a significant impact on global environment issues.
Gaseous emissions from animal manure are considerable contributor to global ammonia (NH3) and agriculture greenhouse gas (GHG) emissions. Given the demand to promote mitigation of GHGs while fostering sustainable development of the Paris Agreement, an improvement of management systems is urgently needed to help mitigate climate change and to improve atmospheric air quality. This study presents a meta-analysis and an integrated assessment of gaseous emissions and mitigation potentials for NH3, methane (CH4), and nitrous oxide (N2O) (direct and indirect) losses from four typical swine manure management systems (MMSs). The resultant emission factors and mitigation efficiencies allow GHG and NH3 emissions to be estimated, as well as mitigation potentials for different stages of swine operation. In particular, changing swine manure management from liquid systems to solid–liquid separation systems, coupled with mitigation measures, could simultaneously reduce GHG emissions by 65% and NH3 emissions by 78%. The resultant potential reduction in GHG emissions from China’s pig production alone is greater than the entire GHG emissions from agricultural sector of France, Australia, or Germany, while the reduction in NH3 emissions is equivalent to 40% of the total NH3 emissions from the European Union. Thus, improved swine manure management could have a significant impact on global environment issues.
Gaseous emissions from animal manure are considerable contributor to global ammonia (NH ) and agriculture greenhouse gas (GHG) emissions. Given the demand to promote mitigation of GHGs while fostering sustainable development of the Paris Agreement, an improvement of management systems is urgently needed to help mitigate climate change and to improve atmospheric air quality. This study presents a meta-analysis and an integrated assessment of gaseous emissions and mitigation potentials for NH , methane (CH ), and nitrous oxide (N O) (direct and indirect) losses from four typical swine manure management systems (MMSs). The resultant emission factors and mitigation efficiencies allow GHG and NH emissions to be estimated, as well as mitigation potentials for different stages of swine operation. In particular, changing swine manure management from liquid systems to solid-liquid separation systems, coupled with mitigation measures, could simultaneously reduce GHG emissions by 65% and NH emissions by 78%. The resultant potential reduction in GHG emissions from China's pig production alone is greater than the entire GHG emissions from agricultural sector of France, Australia, or Germany, while the reduction in NH emissions is equivalent to 40% of the total NH emissions from the European Union. Thus, improved swine manure management could have a significant impact on global environment issues.
Gaseous emissions from animal manure are considerable contributor to global ammonia (NH₃) and agriculture greenhouse gas (GHG) emissions. Given the demand to promote mitigation of GHGs while fostering sustainable development of the Paris Agreement, an improvement of management systems is urgently needed to help mitigate climate change and to improve atmospheric air quality. This study presents a meta-analysis and an integrated assessment of gaseous emissions and mitigation potentials for NH₃, methane (CH₄), and nitrous oxide (N₂O) (direct and indirect) losses from four typical swine manure management systems (MMSs). The resultant emission factors and mitigation efficiencies allow GHG and NH₃ emissions to be estimated, as well as mitigation potentials for different stages of swine operation. In particular, changing swine manure management from liquid systems to solid–liquid separation systems, coupled with mitigation measures, could simultaneously reduce GHG emissions by 65% and NH₃ emissions by 78%. The resultant potential reduction in GHG emissions from China’s pig production alone is greater than the entire GHG emissions from agricultural sector of France, Australia, or Germany, while the reduction in NH₃ emissions is equivalent to 40% of the total NH₃ emissions from the European Union. Thus, improved swine manure management could have a significant impact on global environment issues.
Gaseous emissions from animal manure are considerable contributor to global ammonia (NH^sub 3^) and agriculture greenhouse gas (GHG) emissions. Given the demand to promote mitigation of GHGs while fostering sustainable development of the Paris Agreement, an improvement of management systems is urgently needed to help mitigate climate change and to improve atmospheric air quality. This study presents a meta-analysis and an integrated assessment of gaseous emissions and mitigation potentials for NH^sub 3^, methane (CH^sub 4^), and nitrous oxide (N^sub 2^O) (direct and indirect) losses from four typical swine manure management systems (MMSs). The resultant emission factors and mitigation efficiencies allow GHG and NH^sub 3^ emissions to be estimated, as well as mitigation potentials for different stages of swine operation. In particular, changing swine manure management from liquid systems to solid-liquid separation systems, coupled with mitigation measures, could simultaneously reduce GHG emissions by 65% and NH^sub 3^ emissions by 78%. The resultant potential reduction in GHG emissions from China's pig production alone is greater than the entire GHG emissions from agricultural sector of France, Australia, or Germany, while the reduction in NH^sub 3^ emissions is equivalent to 40% of the total NH^sub 3^ emissions from the European Union. Thus, improved swine manure management could have a significant impact on global environment issues.
Author Wang, Yue
Xin, Hongwei
Smith, Pete
Steinfeld, Henning
Zhu, Zhiping
Chadwick, Dave
Gerber, Pierre J
Opio, Carolyn
Dong, Hongmin
AuthorAffiliation Key Laboratory of Energy Conservation and Waste Treatment of Agricultural Structures
University of Aberdeen
Environment Centre Wales, School of Environment, Natural Resources and Geography
Bangor University
Department of Agricultural and Biosystems Engineering
Iowa State University
Institute of Biological and Environmental Sciences
Institute of Environment and Sustainable Development in Agriculture
Chinese Academy of Agricultural Sciences
Animal Production Systems Group
Ministry of Agriculture
Wageningen University
AuthorAffiliation_xml – name: University of Aberdeen
– name: Institute of Environment and Sustainable Development in Agriculture
– name: Animal Production Systems Group
– name: Department of Agricultural and Biosystems Engineering
– name: Chinese Academy of Agricultural Sciences
– name: Key Laboratory of Energy Conservation and Waste Treatment of Agricultural Structures
– name: Institute of Biological and Environmental Sciences
– name: Environment Centre Wales, School of Environment, Natural Resources and Geography
– name: Ministry of Agriculture
– name: Iowa State University
– name: Bangor University
– name: Wageningen University
Author_xml – sequence: 1
  givenname: Yue
  orcidid: 0000-0002-4194-7386
  surname: Wang
  fullname: Wang, Yue
  organization: Ministry of Agriculture
– sequence: 2
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  surname: Dong
  fullname: Dong, Hongmin
  email: donghongmin@caas.cn
  organization: Ministry of Agriculture
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  surname: Zhu
  fullname: Zhu, Zhiping
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  surname: Gerber
  fullname: Gerber, Pierre J
  organization: Wageningen University
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– sequence: 9
  givenname: Dave
  surname: Chadwick
  fullname: Chadwick, Dave
  organization: Bangor University
BackLink https://www.ncbi.nlm.nih.gov/pubmed/28318241$$D View this record in MEDLINE/PubMed
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Snippet Gaseous emissions from animal manure are considerable contributor to global ammonia (NH3) and agriculture greenhouse gas (GHG) emissions. Given the demand to...
Gaseous emissions from animal manure are considerable contributor to global ammonia (NH ) and agriculture greenhouse gas (GHG) emissions. Given the demand to...
Gaseous emissions from animal manure are considerable contributor to global ammonia (NH^sub 3^) and agriculture greenhouse gas (GHG) emissions. Given the...
Gaseous emissions from animal manure are considerable contributor to global ammonia (NH₃) and agriculture greenhouse gas (GHG) emissions. Given the demand to...
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SubjectTerms Agricultural industry
Air Pollutants
Air quality
Ammonia
animal manure management
Animal Production Systems
Animals
Australia
China
Climate Change
Climate change mitigation
Dierlijke Productiesystemen
Emission measurements
Emissions
Emissions control
emissions factor
European Union
France
Gases
Germany
Greenhouse Effect
greenhouse gas emissions
Greenhouse gases
Hogs
Leerstoelgroep Dierlijke productiesystemen
Management systems
Manure
Manures
meta-analysis
Methane
Nitrous Oxide
Outdoor air quality
Paris Agreement
Pig manure
Reduction
Sustainable development
Swine
Swine production
Systems analysis
Title Mitigating Greenhouse Gas and Ammonia Emissions from Swine Manure Management: A System Analysis
URI http://dx.doi.org/10.1021/acs.est.6b06430
https://www.ncbi.nlm.nih.gov/pubmed/28318241
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