Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Mitigating Agricultural Methane Emissions

View through CrossRef
Increased natural methane emissions make the Global Methane Pledge’s goal of cutting the total atmospheric methane burden harder to achieve. Methane’s 2020-2022 surge has faded, but current growth is still rapid. Cutting emissions is feasible: rapid advances are being made in direct practical methods to quantify and reduce agricultural methane emissions worldwide [Nisbet et al. 2025. Practical paths towards quantifying and mitigating agricultural methane emissions. Proc Royal Soc A 481]. Location, identification, quantification, and distinction between different specific sources are all becoming better, though often multiple emitters such as manure pools, animal housing, biodigesters and landfills are co-located. Top targets include cutting emissions from manure stores, biodigesters, and waste. In some cases agricultural methane can be used to generate electricity.  New technology may make it possible to destroy methane in livestock barns. Emissions from crop waste and food waste in heaps and landfills, a major source of air pollution in Africa and South Asia, can be sharply and quickly reduced. Controlling biomass burning is an urgent priority in South Asia and tropical Africa, where rural crop waste burning is widespread, despite the damaging impact on public health. To date, tropical countries have paid little attention to methane, but they have the skills and resources to make significant reductions in agricultural emissions.
Copernicus GmbH
Title: Mitigating Agricultural Methane Emissions
Description:
Increased natural methane emissions make the Global Methane Pledge’s goal of cutting the total atmospheric methane burden harder to achieve.
Methane’s 2020-2022 surge has faded, but current growth is still rapid.
Cutting emissions is feasible: rapid advances are being made in direct practical methods to quantify and reduce agricultural methane emissions worldwide [Nisbet et al.
2025.
Practical paths towards quantifying and mitigating agricultural methane emissions.
Proc Royal Soc A 481].
Location, identification, quantification, and distinction between different specific sources are all becoming better, though often multiple emitters such as manure pools, animal housing, biodigesters and landfills are co-located.
Top targets include cutting emissions from manure stores, biodigesters, and waste.
In some cases agricultural methane can be used to generate electricity.
 New technology may make it possible to destroy methane in livestock barns.
Emissions from crop waste and food waste in heaps and landfills, a major source of air pollution in Africa and South Asia, can be sharply and quickly reduced.
Controlling biomass burning is an urgent priority in South Asia and tropical Africa, where rural crop waste burning is widespread, despite the damaging impact on public health.
To date, tropical countries have paid little attention to methane, but they have the skills and resources to make significant reductions in agricultural emissions.

Related Results

Study on Characteristics and Model Prediction of Methane Emissions in Coal Mines: A Case Study of Shanxi Province, China
Study on Characteristics and Model Prediction of Methane Emissions in Coal Mines: A Case Study of Shanxi Province, China
The venting of methane from coal mining is China’s main source of methane emissions. Accurate and up-to-date methane emission factors for coal mines are significant for reporting a...
Comparison of Methane Control Methods in Polish and Vietnamese Coal Mines
Comparison of Methane Control Methods in Polish and Vietnamese Coal Mines
Methane hazard often occurs in hard coal mines and causes very serious accidents and can be the reason of methane or methane and coal dust explosions. History of coal mining shows ...
Urban Methane Emissions in Auckland, New Zealand
Urban Methane Emissions in Auckland, New Zealand
<p><b>Using a mobile survey sampling technique, my research investigates the spatial distribution of urban methane emissions in Auckland, New Zealand. The mobile survey...
Addressing Misunderstandings and Supporting Sonsistency in the Methane Discourse
Addressing Misunderstandings and Supporting Sonsistency in the Methane Discourse
Abstract Policymakers and stakeholders target methane as a significant contributor of global warming and so expectations to better understand and reduce methane emis...
“Lavender Haze” in the Airways
“Lavender Haze” in the Airways
Introduction Taylor Swift has dominated global press in recent years through the success of her Eras Tour, her use of authenticity in branding (Khanal 234), and her choreographed e...
Use of Drone Technology for Methane Emissions Quantification - Level 4 and Level 5 Reconciliation as Per OGMP
Use of Drone Technology for Methane Emissions Quantification - Level 4 and Level 5 Reconciliation as Per OGMP
Abstract Methane emissions are the most potent Green House Gases from the Oil & Gas Industry. ADNOC Onshore is developing across its assets several technologies ...
Methane Emission Estimation Tools as a Basis for Sustainable Underground Mining of Gas-Bearing Coal Seams
Methane Emission Estimation Tools as a Basis for Sustainable Underground Mining of Gas-Bearing Coal Seams
Underground coal mining of gas-bearing coal seams is accompanied by the emission of large amounts of methane, which increases with depth. Coal seam methane is not only a major caus...
Modeling Climate Impacts of Hydrogen Transition Pathways
Modeling Climate Impacts of Hydrogen Transition Pathways
Hydrogen has emerged as a key contender for decarbonizing hard-to-abate sectors, as it has the advantage of emitting no direct carbon dioxide emissions during combustion. However, ...

Back to Top