The document discusses the LIFE BEEF CARBON project which aims to reduce the carbon footprint of beef production in Europe by 15% over 10 years. It presents results from 2000 demonstrative beef farms in 4 countries which showed variability in greenhouse gas emissions depending on production system. Mitigation potential was identified on 170 innovative farms, with techniques including methane capture, improved animal performance, optimized nutrition and manure management, reduced fertilizer use, and increased carbon sequestration. Reductions of 7-18% in the carbon footprint were estimated depending on the technique and production system.
This document summarizes a project that evaluated multi-actor farm health teams in France and Greece aimed at reducing antibiotic use in dairy sheep farming. The project received European Union funding. It involved farm health teams consisting of farmers, advisors, veterinarians and coaches developing action plans to improve farm health and reduce antibiotic needs on 10 farms in each country. The teams identified health issues, assessed biosecurity practices, and developed plans to address weaknesses and improve practices through actions focusing on disease prevention and prudent antibiotic use. Evaluations found improvements in some farm practices and health status from the plans, though changing daily routines proved challenging. Ongoing monitoring is needed to sustain changes and motivation.
The document summarizes the results and objectives of the LIFE BEEF CARBON project, which aimed to reduce the carbon footprint of beef production in Europe by 15% over 10 years. Key findings include:
- Assessment of 2000 farms found variability in GHG emissions within production systems and identified opportunities to improve technical performance and lower emissions.
- 170 innovative farms developed carbon action plans and achieved an average 13% reduction in emissions through practices like improving herd management, feed efficiency, manure management, and fertilizer use.
- Over 40 mitigation techniques were identified targeting sources like enteric fermentation, manure, feed, and fertilizer. Common practices included increasing productivity, optimizing grazing,
The document discusses the after-LIFE plans for Italy, Spain, Ireland, and France to continue promoting low-carbon beef production strategies developed in the LIFE BEEF CARBON project. In Italy, guidelines will be created to incentivize carbon farming programs. In Spain, a certification scheme will be developed and a roadmap created to achieve sector carbon neutrality by 2050. Ireland is implementing programs to increase grassland utilization and decrease methane emissions. France has numerous territorial and industry initiatives utilizing the CAP2ER carbon assessment tool.
This document discusses European initiatives to reduce carbon intensity in livestock farming. It outlines methodologies and tools used, including farm audit tools that take a whole farm approach assessing greenhouse gases, carbon sequestration, and sustainability goals. Examples of initiatives highlighted are LIFE Carbon Dairy, Low Carbon Dairy Farm, LIFE Beef Carbon, and LIFE Green Sheep 2020-2025, which aim to raise awareness, support strategies, train farmers, and fund advice to help farmers transition to low carbon practices. Carbon farming is discussed as a way to adopt climate-friendly practices, quantify carbon reductions, and reward farmers through payments for environmental services or carbon markets. Future projects outlined include ClieNFarms to co-
Piergiorgio manages an innovative beef farm in Taglio di Po, Veneto, Italy. He joined the LIFE BEEF CARBON network to measure the environmental impact of his livestock activities, evaluate his practices, and compare with other farms. An environmental assessment of his farm in 2016 found his beef production resulted in 9.1 kg of CO2 equivalents per kg of live weight gain, stored 142 tons of CO2 equivalents in soil and vegetation, and identified opportunities to reduce greenhouse gas emissions and energy consumption through improved nitrogen management and other strategies.
The document discusses actions taken by the French cattle and meat sector to address environmental issues. It summarizes efforts to reduce the carbon footprint through grasslands management and carbon storage. It also addresses limits of life cycle assessment for agricultural products and debates around environmental labeling frameworks in France. Specifically, it examines how assessment methodologies can impact future agricultural systems and the role of sustainable cattle farming in agroecological transitions.
This document summarizes a project that evaluated multi-actor farm health teams in France and Greece aimed at reducing antibiotic use in dairy sheep farming. The project received European Union funding. It involved farm health teams consisting of farmers, advisors, veterinarians and coaches developing action plans to improve farm health and reduce antibiotic needs on 10 farms in each country. The teams identified health issues, assessed biosecurity practices, and developed plans to address weaknesses and improve practices through actions focusing on disease prevention and prudent antibiotic use. Evaluations found improvements in some farm practices and health status from the plans, though changing daily routines proved challenging. Ongoing monitoring is needed to sustain changes and motivation.
The document summarizes the results and objectives of the LIFE BEEF CARBON project, which aimed to reduce the carbon footprint of beef production in Europe by 15% over 10 years. Key findings include:
- Assessment of 2000 farms found variability in GHG emissions within production systems and identified opportunities to improve technical performance and lower emissions.
- 170 innovative farms developed carbon action plans and achieved an average 13% reduction in emissions through practices like improving herd management, feed efficiency, manure management, and fertilizer use.
- Over 40 mitigation techniques were identified targeting sources like enteric fermentation, manure, feed, and fertilizer. Common practices included increasing productivity, optimizing grazing,
The document discusses the after-LIFE plans for Italy, Spain, Ireland, and France to continue promoting low-carbon beef production strategies developed in the LIFE BEEF CARBON project. In Italy, guidelines will be created to incentivize carbon farming programs. In Spain, a certification scheme will be developed and a roadmap created to achieve sector carbon neutrality by 2050. Ireland is implementing programs to increase grassland utilization and decrease methane emissions. France has numerous territorial and industry initiatives utilizing the CAP2ER carbon assessment tool.
This document discusses European initiatives to reduce carbon intensity in livestock farming. It outlines methodologies and tools used, including farm audit tools that take a whole farm approach assessing greenhouse gases, carbon sequestration, and sustainability goals. Examples of initiatives highlighted are LIFE Carbon Dairy, Low Carbon Dairy Farm, LIFE Beef Carbon, and LIFE Green Sheep 2020-2025, which aim to raise awareness, support strategies, train farmers, and fund advice to help farmers transition to low carbon practices. Carbon farming is discussed as a way to adopt climate-friendly practices, quantify carbon reductions, and reward farmers through payments for environmental services or carbon markets. Future projects outlined include ClieNFarms to co-
Piergiorgio manages an innovative beef farm in Taglio di Po, Veneto, Italy. He joined the LIFE BEEF CARBON network to measure the environmental impact of his livestock activities, evaluate his practices, and compare with other farms. An environmental assessment of his farm in 2016 found his beef production resulted in 9.1 kg of CO2 equivalents per kg of live weight gain, stored 142 tons of CO2 equivalents in soil and vegetation, and identified opportunities to reduce greenhouse gas emissions and energy consumption through improved nitrogen management and other strategies.
The document discusses actions taken by the French cattle and meat sector to address environmental issues. It summarizes efforts to reduce the carbon footprint through grasslands management and carbon storage. It also addresses limits of life cycle assessment for agricultural products and debates around environmental labeling frameworks in France. Specifically, it examines how assessment methodologies can impact future agricultural systems and the role of sustainable cattle farming in agroecological transitions.
McDonald's France is outlining its climate strategy to reduce the environmental impacts of its beef supply chain, which accounts for 70% of its greenhouse gas emissions. Its strategy includes promoting long-term contractual relationships with farmers, conducting life cycle assessments of beef patties to identify emissions reductions opportunities, and deploying an agroecological strategy across its main agricultural categories since 2010. Current initiatives focus on deploying carbon assessment tools on contracted farms, supporting national initiatives to reduce emissions across the supply chain, and piloting projects to test practices that increase carbon storage in grasslands, trees/hedgerows, and soil to accelerate decarbonization. The company is considering how to further incentivize farmers' transition to low-carbon
The LIFE Beef Carbon project in Ireland is working with over 20 innovative beef farms involved in the Teagasc/IFJ Better Beef program to monitor the effect of mitigation strategies on beef carbon footprints and assess farm sustainability. The farms are implementing challenges like improving soil fertility, grass utilization, cattle genetics, calving rates, and finishing ages. Carbon footprints are calculated using a Carbon Audit tool incorporating farm data. A case study suckler beef farm reduced its net carbon footprint 15% while increasing profits through sustainable intensification strategies. Further reductions may require financial support to adopt alternative strategies with less productivity growth potential. Next steps include comparing demonstrative farms to Better Beef farms and considering additional actions like low emission slurry spreaders
The LIFE BEEF CARBON project aims to reduce the carbon footprint of beef production in France, Ireland, Italy and Spain by 15% through developing a common framework for assessing greenhouse gas emissions, educating over 2,000 farmers and technicians, creating a European beef carbon observatory by calculating carbon footprints on farms, and establishing a network of 170 innovative farms to demonstrate low-carbon practices. The large partnership involves disseminating information and implementing carbon action plans across different levels from European to regional.
Session 06 "Sensing dynamics in livestock physiology disruption through images and other non-invasive alternatives"
EAAP 2021
Par Adrien Lebreton, Idele & P. Faverdin, PEGASE-INRAE
This document summarizes the development of tools to assess greenhouse gas emissions and carbon footprints of beef production systems across several European countries. The project aimed to create a common framework for these tools, update existing tools, and conduct baseline assessments of beef farms. Preliminary results from Irish beef farms found substantial variation in greenhouse gas emissions and carbon footprints across different production systems. The analysis highlights opportunities to mitigate emissions through improved production practices. A wider environmental assessment is also being developed to evaluate additional impacts like biodiversity, air, and water quality.
Estelle Rabourdin and Jess Sloss - Global Sustainability Impacts - EuropeJohn Blue
The document discusses sustainability initiatives in the United Kingdom and France to reduce antibiotic use and carbon footprint. In the UK, Red Tractor Assurance works to ensure antibiotics are used responsibly and as little as possible in beef farming through standards, inspections, and veterinary reviews. In France, Moy Park Food Service is working to reduce the carbon footprint of beef production through a multi-country initiative measuring farm carbon footprints, testing best practices, and communicating results to avoid 120,000 tons of CO2 emissions over 10 years. Both countries aim to improve practices through industry standards, measurement, and knowledge sharing.
Dr. Miguel Angel Higuera - Focus on Preparation - Anticipating Changing Condi...John Blue
Focus on Preparation - Anticipating Changing Conditions - Dr. Miguel Angel Higuera, National Association of Swine Producers (Spain), from the 2016 World Pork Expo, June 8 - 10, 2016, Des Moines, IA, USA.
More presentations at http://www.swinecast.com/2016-world-pork-expo
27 september 2010- 3 NL Agency- Certification of sustainable biomass- Kees KwantDaey Ouwens Fund
This document discusses sustainability certification of biomass. It outlines the growing public concern over the sustainability of biomass production which has led to the development of certification standards. Key criteria for sustainable biomass production standards include greenhouse gas balances, avoiding competition with food production, protecting biodiversity, and ensuring environmental protection and prosperity. The EU Renewable Energy Directive lays out sustainability criteria for biofuels, including minimum thresholds for greenhouse gas savings. Certification systems involve accreditation bodies, control and verification of production according to set standards and principles. Implementation in the Netherlands and Germany involves national certification schemes that must meet or exceed EU requirements. Africa will need to ensure biomass supplies to Europe are certified as sustainable under these standards.
This presentation was given by Jelle Zijlstra and Theun Vellinga at the kick-off meeting on "Piloting and scaling of low emission development options in large scale dairy farms in China" on September 28, 2020.
"Carbon footprint assessment and mitigation options of dairy under Chinese conditions," presented by DONG Hongmin (CAAS) at the CCAFS project meeting with CAAS, CAU & WUR in Beijing, January 15th 2019.
Part of the Carbon Footprint Assessment and Mitigation Options of Dairy under Chinese Conditions Project. Implemented by the Chinese Academy of Agricultural Sciecnces (CAAS), China Agricultural University (CAU) & Wageningen University and Research (WUR). In collaboration with the CGIAR Research Program for Climate Change, Agriculture and Food Security (CCAFS) and the Sino-Dutch Dairy Development Centre (SDDDC).
To accelerate implementation of the Paris Agreement, the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS) and the International Livestock Research Institute (ILRI), in collaboration with the Global Research Alliance on Agricultural Greenhouse Gases (GRA) and the Food and Agriculture Organization of the United Nations (FAO), will facilitate a science-policy dialogue on measurement, reporting and verification (MRV) to detect mitigation impacts in livestock production systems. Country experiences will be shared to identify practical innovations for the collection and coordination of activity data and improved emission factors.
Walter Oyhantacabal, Ministry of Livestock, Agriculture and Fishery, Uruguay
Presentation to the Chinese Academy of Agricultural Sciences (CAAS)
16 October 2018, Beijing, China
Presented by Dong Hongmin Ph.D, Institute of Environment and Sustainable Development in Agriculture (IEDA), Chinese Academy of Agricultural Sciences (CAAS)
Strong presence at the German agriculture exhibition next week in Hanover.
Meet : ACTIFEED
ALPHATECH
ARTIMON
CELTILAIT – ORIANE
CHOICE GENETICS
EARLYPIG
EUROTEC'H
GLOBAL NATURA
GMMI
HERE & THERE
JEANTIL
LACTALIS FEED
LACTO PRODUCTION
LODI GROUP
MANGHEBATI
MG2MIX
NEOLAIT NEWBORN ANIMAL CARE
PICHON
SODALEC DISTRIBUTION
SOFIVO - ELVOR
SPACE
SYNTHESE ELEVAGE
USINE DE KERVELLERIN
VITALAC
ZOOPOLE DEVELOPPEMENT
1. South Pole is a company that develops climate projects to help organizations reduce their climate impact through activities like feed additives that reduce methane emissions from livestock.
2. They provide support for the entire project lifecycle from concept to implementation and operation. They have over 1000 employees in 36 offices worldwide with expertise in engineering, consulting, science, project development and finance.
3. One of their agriculture project focuses is establishing projects using feed additives to reduce methane emissions from livestock like cattle. Adding certain ingredients to cattle feed can reduce the amount of methane produced through their digestion and manure.
Gas Networks Ireland presentation from the IREC conference on Renewable Gas: Unique Heat & De-carbonisation Opportunity for Ireland.
Gas has a key part to play in helping Ireland meet it's climate change targets through;
• More efficient use of the existing gas networks
• The deployment of more innovate technologies
• Facilitating and supporting an indigenous renewable gas industry
The document describes Agroporc, a proposed pork production business model in Croatia. The key points are:
1) Agroporc will use a clustered production model with a nucleus farm, commercial farms, and finishing units cooperating under the management of Agroporc d.o.o. The goal is to produce 400,000 finishers per year, meeting 40% of Croatia's pork demand.
2) Agroporc will implement high biosecurity, animal welfare, and quality standards according to Global G.A.P. Commercial farms will produce piglets which will be sent to specialized finishing units.
3) Other members of the cluster include a breeding center, veterinary services, and a feed
COP 22 Side Event Official Presentation
Side event title: Improving MRV for agricultural emission reductions in the livestock sector
7 November 2016, 16:45- 18:15 with cocktail following
Mediterranean Room
To accelerate implementation of the Paris Agreement, the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS) and the International Livestock Research Institute (ILRI), in collaboration with the Global Research Alliance on Agricultural Greenhouse Gases (GRA) and the Food and Agriculture Organization of the United Nations (FAO), will facilitate a science-policy dialogue on measurement, reporting and verification (MRV) to detect mitigation impacts in livestock production systems. Country experiences will be shared to identify practical innovations for the collection and coordination of activity data and improved emission factors.
This document discusses a study on the use of radiant floor heating systems for broiler production in Portugal. Key findings include:
1) Radiant floor heating provided more uniform temperatures compared to conventional air heating systems, leading to drier litter and improved bird health/performance.
2) Energy use was reduced by 40-50% with radiant floor heating, costing an estimated 0.01-0.03 Euros per broiler compared to 0.05-0.10 Euros for air heating systems.
3) On-farm trials found reductions in specific energy use of 11-13% with radiant heating. Feed conversion rates and mortality rates also improved compared to flocks raised with air
How will the farming sector reduce ammonia emissions? - Grace WhitlowIES / IAQM
The document discusses how the UK farming sector plans to reduce ammonia emissions to meet national targets. It outlines several proposed regulatory actions including requiring low-emission spreading equipment for slurries and digestates by 2025, covering slurry and digestate stores by 2027, and extending environmental permitting to dairy and intensive beef farms by 2025. It emphasizes the need for a holistic, cost-benefit approach that improves nitrogen use efficiency, sets standards based on robust science, provides support for investments, and accounts for ongoing changes in farming practices.
McDonald's France is outlining its climate strategy to reduce the environmental impacts of its beef supply chain, which accounts for 70% of its greenhouse gas emissions. Its strategy includes promoting long-term contractual relationships with farmers, conducting life cycle assessments of beef patties to identify emissions reductions opportunities, and deploying an agroecological strategy across its main agricultural categories since 2010. Current initiatives focus on deploying carbon assessment tools on contracted farms, supporting national initiatives to reduce emissions across the supply chain, and piloting projects to test practices that increase carbon storage in grasslands, trees/hedgerows, and soil to accelerate decarbonization. The company is considering how to further incentivize farmers' transition to low-carbon
The LIFE Beef Carbon project in Ireland is working with over 20 innovative beef farms involved in the Teagasc/IFJ Better Beef program to monitor the effect of mitigation strategies on beef carbon footprints and assess farm sustainability. The farms are implementing challenges like improving soil fertility, grass utilization, cattle genetics, calving rates, and finishing ages. Carbon footprints are calculated using a Carbon Audit tool incorporating farm data. A case study suckler beef farm reduced its net carbon footprint 15% while increasing profits through sustainable intensification strategies. Further reductions may require financial support to adopt alternative strategies with less productivity growth potential. Next steps include comparing demonstrative farms to Better Beef farms and considering additional actions like low emission slurry spreaders
The LIFE BEEF CARBON project aims to reduce the carbon footprint of beef production in France, Ireland, Italy and Spain by 15% through developing a common framework for assessing greenhouse gas emissions, educating over 2,000 farmers and technicians, creating a European beef carbon observatory by calculating carbon footprints on farms, and establishing a network of 170 innovative farms to demonstrate low-carbon practices. The large partnership involves disseminating information and implementing carbon action plans across different levels from European to regional.
Session 06 "Sensing dynamics in livestock physiology disruption through images and other non-invasive alternatives"
EAAP 2021
Par Adrien Lebreton, Idele & P. Faverdin, PEGASE-INRAE
This document summarizes the development of tools to assess greenhouse gas emissions and carbon footprints of beef production systems across several European countries. The project aimed to create a common framework for these tools, update existing tools, and conduct baseline assessments of beef farms. Preliminary results from Irish beef farms found substantial variation in greenhouse gas emissions and carbon footprints across different production systems. The analysis highlights opportunities to mitigate emissions through improved production practices. A wider environmental assessment is also being developed to evaluate additional impacts like biodiversity, air, and water quality.
Estelle Rabourdin and Jess Sloss - Global Sustainability Impacts - EuropeJohn Blue
The document discusses sustainability initiatives in the United Kingdom and France to reduce antibiotic use and carbon footprint. In the UK, Red Tractor Assurance works to ensure antibiotics are used responsibly and as little as possible in beef farming through standards, inspections, and veterinary reviews. In France, Moy Park Food Service is working to reduce the carbon footprint of beef production through a multi-country initiative measuring farm carbon footprints, testing best practices, and communicating results to avoid 120,000 tons of CO2 emissions over 10 years. Both countries aim to improve practices through industry standards, measurement, and knowledge sharing.
Dr. Miguel Angel Higuera - Focus on Preparation - Anticipating Changing Condi...John Blue
Focus on Preparation - Anticipating Changing Conditions - Dr. Miguel Angel Higuera, National Association of Swine Producers (Spain), from the 2016 World Pork Expo, June 8 - 10, 2016, Des Moines, IA, USA.
More presentations at http://www.swinecast.com/2016-world-pork-expo
27 september 2010- 3 NL Agency- Certification of sustainable biomass- Kees KwantDaey Ouwens Fund
This document discusses sustainability certification of biomass. It outlines the growing public concern over the sustainability of biomass production which has led to the development of certification standards. Key criteria for sustainable biomass production standards include greenhouse gas balances, avoiding competition with food production, protecting biodiversity, and ensuring environmental protection and prosperity. The EU Renewable Energy Directive lays out sustainability criteria for biofuels, including minimum thresholds for greenhouse gas savings. Certification systems involve accreditation bodies, control and verification of production according to set standards and principles. Implementation in the Netherlands and Germany involves national certification schemes that must meet or exceed EU requirements. Africa will need to ensure biomass supplies to Europe are certified as sustainable under these standards.
This presentation was given by Jelle Zijlstra and Theun Vellinga at the kick-off meeting on "Piloting and scaling of low emission development options in large scale dairy farms in China" on September 28, 2020.
"Carbon footprint assessment and mitigation options of dairy under Chinese conditions," presented by DONG Hongmin (CAAS) at the CCAFS project meeting with CAAS, CAU & WUR in Beijing, January 15th 2019.
Part of the Carbon Footprint Assessment and Mitigation Options of Dairy under Chinese Conditions Project. Implemented by the Chinese Academy of Agricultural Sciecnces (CAAS), China Agricultural University (CAU) & Wageningen University and Research (WUR). In collaboration with the CGIAR Research Program for Climate Change, Agriculture and Food Security (CCAFS) and the Sino-Dutch Dairy Development Centre (SDDDC).
To accelerate implementation of the Paris Agreement, the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS) and the International Livestock Research Institute (ILRI), in collaboration with the Global Research Alliance on Agricultural Greenhouse Gases (GRA) and the Food and Agriculture Organization of the United Nations (FAO), will facilitate a science-policy dialogue on measurement, reporting and verification (MRV) to detect mitigation impacts in livestock production systems. Country experiences will be shared to identify practical innovations for the collection and coordination of activity data and improved emission factors.
Walter Oyhantacabal, Ministry of Livestock, Agriculture and Fishery, Uruguay
Presentation to the Chinese Academy of Agricultural Sciences (CAAS)
16 October 2018, Beijing, China
Presented by Dong Hongmin Ph.D, Institute of Environment and Sustainable Development in Agriculture (IEDA), Chinese Academy of Agricultural Sciences (CAAS)
Strong presence at the German agriculture exhibition next week in Hanover.
Meet : ACTIFEED
ALPHATECH
ARTIMON
CELTILAIT – ORIANE
CHOICE GENETICS
EARLYPIG
EUROTEC'H
GLOBAL NATURA
GMMI
HERE & THERE
JEANTIL
LACTALIS FEED
LACTO PRODUCTION
LODI GROUP
MANGHEBATI
MG2MIX
NEOLAIT NEWBORN ANIMAL CARE
PICHON
SODALEC DISTRIBUTION
SOFIVO - ELVOR
SPACE
SYNTHESE ELEVAGE
USINE DE KERVELLERIN
VITALAC
ZOOPOLE DEVELOPPEMENT
1. South Pole is a company that develops climate projects to help organizations reduce their climate impact through activities like feed additives that reduce methane emissions from livestock.
2. They provide support for the entire project lifecycle from concept to implementation and operation. They have over 1000 employees in 36 offices worldwide with expertise in engineering, consulting, science, project development and finance.
3. One of their agriculture project focuses is establishing projects using feed additives to reduce methane emissions from livestock like cattle. Adding certain ingredients to cattle feed can reduce the amount of methane produced through their digestion and manure.
Gas Networks Ireland presentation from the IREC conference on Renewable Gas: Unique Heat & De-carbonisation Opportunity for Ireland.
Gas has a key part to play in helping Ireland meet it's climate change targets through;
• More efficient use of the existing gas networks
• The deployment of more innovate technologies
• Facilitating and supporting an indigenous renewable gas industry
The document describes Agroporc, a proposed pork production business model in Croatia. The key points are:
1) Agroporc will use a clustered production model with a nucleus farm, commercial farms, and finishing units cooperating under the management of Agroporc d.o.o. The goal is to produce 400,000 finishers per year, meeting 40% of Croatia's pork demand.
2) Agroporc will implement high biosecurity, animal welfare, and quality standards according to Global G.A.P. Commercial farms will produce piglets which will be sent to specialized finishing units.
3) Other members of the cluster include a breeding center, veterinary services, and a feed
COP 22 Side Event Official Presentation
Side event title: Improving MRV for agricultural emission reductions in the livestock sector
7 November 2016, 16:45- 18:15 with cocktail following
Mediterranean Room
To accelerate implementation of the Paris Agreement, the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS) and the International Livestock Research Institute (ILRI), in collaboration with the Global Research Alliance on Agricultural Greenhouse Gases (GRA) and the Food and Agriculture Organization of the United Nations (FAO), will facilitate a science-policy dialogue on measurement, reporting and verification (MRV) to detect mitigation impacts in livestock production systems. Country experiences will be shared to identify practical innovations for the collection and coordination of activity data and improved emission factors.
This document discusses a study on the use of radiant floor heating systems for broiler production in Portugal. Key findings include:
1) Radiant floor heating provided more uniform temperatures compared to conventional air heating systems, leading to drier litter and improved bird health/performance.
2) Energy use was reduced by 40-50% with radiant floor heating, costing an estimated 0.01-0.03 Euros per broiler compared to 0.05-0.10 Euros for air heating systems.
3) On-farm trials found reductions in specific energy use of 11-13% with radiant heating. Feed conversion rates and mortality rates also improved compared to flocks raised with air
How will the farming sector reduce ammonia emissions? - Grace WhitlowIES / IAQM
The document discusses how the UK farming sector plans to reduce ammonia emissions to meet national targets. It outlines several proposed regulatory actions including requiring low-emission spreading equipment for slurries and digestates by 2025, covering slurry and digestate stores by 2027, and extending environmental permitting to dairy and intensive beef farms by 2025. It emphasizes the need for a holistic, cost-benefit approach that improves nitrogen use efficiency, sets standards based on robust science, provides support for investments, and accounts for ongoing changes in farming practices.
This document discusses addressing climate change adaptation and mitigation in the dairy sector to improve sustainability. It outlines the context of climate change impacts on temperatures and GHG emissions. Adaptation strategies for dairy systems include improving forage and crop management, animal management, and grassland practices. Mitigation involves calculating carbon footprints, implementing practices to reduce emissions and increase carbon sequestration on farms, and developing carbon certification programs. A national initiative in France provides training, assessments, and sustainable action plans to support over 10,000 dairy farmers in adapting practices and reducing carbon intensity through a large partnership.
How can agriculture help achieve the 2°C climate change target? Delivering food security while reducing emissions in the global food system
November 2, 2015
Event co-sponsored by the CGIAR Research Program on Climate Change, Agriculture and Food Security and the World Bank
Presentation
Delivering on a transformed food sector:
Rethinking livestock production and diets
Pierre Gerber, Senior Livestock Specialist, World Bank
Sustainable small-scale biogas production from agrofood waste for energy self...OriginGreenPlatform
IrBEA promotes sustainable small-scale biogas production from agro-food waste. The EU-funded BIOGAS3 project aims to develop biogas plants suitable for farms and food processors without disrupting operations. These plants would use materials like cow slurry, food waste, and pig slurry to provide on-site energy for operations like milking, processing, and building heating. Successful small-scale biogas examples from Europe and developing countries are highlighted. The presentation provides information on substrates and gas yields, and explains how interested parties can get involved through training, feasibility studies, and project implementation support.
Presentation builds onto National Discussions on Priority Adaptation and Mitigation Actions for Agriculture in the National Climate Change Action Plan 2013-2017
More information: http://ccafs.cgiar.org/national-adaptation-planning-event-agriculture#.UhcfJD-LKdk
Similar to 3. Résultats des 2000 fermes LIFE BEEF CARBON en Espagne, France, Irlande et Italie (20)
Combinaison des approches génétique et de modélisation pour développer un nouveau biomarqueur non invasif de résilience basé sur les métabolites du lait, par Marie Ithurbide - INRAE
Dans un contexte où la transmission et l'installation d'agriculteurs sont des enjeux cruciaux pour la profession agricole, de nouveaux agriculteurs s'installent chaque année et, parmi eux, certains Bac+5 ou plus. Les cursus des écoles d'ingénieurs n'ont pas vocation à former de futurs agriculteurs. Pourtant, certains apprenants ayant suivi ces cursus BAC + 5, qu'ils soient ou non issus du milieu agricole, tentent l'aventure de l'entrepreneuriat agricole. Qui sont-ils ? Quelles sont leurs motivations et visions ? Comment travaillent-ils ?
Organisé par le CIIRPO, ce webinaire fait le point sur les différents types de boiteries chez les brebis et les béliers illustrées de photos. Les modes de prévention et les traitements possibles sont cités.
L’équipe du projet BeBoP a proposé un webinaire le 30 mai 2024 pour découvrir comment la technologie vidéo, combinée à l’intelligence artificielle, se met au service de l’analyse du comportement des taurillons.
6th International Conference on Machine Learning & Applications (CMLA 2024)ClaraZara1
6th International Conference on Machine Learning & Applications (CMLA 2024) will provide an excellent international forum for sharing knowledge and results in theory, methodology and applications of on Machine Learning & Applications.
A SYSTEMATIC RISK ASSESSMENT APPROACH FOR SECURING THE SMART IRRIGATION SYSTEMSIJNSA Journal
The smart irrigation system represents an innovative approach to optimize water usage in agricultural and landscaping practices. The integration of cutting-edge technologies, including sensors, actuators, and data analysis, empowers this system to provide accurate monitoring and control of irrigation processes by leveraging real-time environmental conditions. The main objective of a smart irrigation system is to optimize water efficiency, minimize expenses, and foster the adoption of sustainable water management methods. This paper conducts a systematic risk assessment by exploring the key components/assets and their functionalities in the smart irrigation system. The crucial role of sensors in gathering data on soil moisture, weather patterns, and plant well-being is emphasized in this system. These sensors enable intelligent decision-making in irrigation scheduling and water distribution, leading to enhanced water efficiency and sustainable water management practices. Actuators enable automated control of irrigation devices, ensuring precise and targeted water delivery to plants. Additionally, the paper addresses the potential threat and vulnerabilities associated with smart irrigation systems. It discusses limitations of the system, such as power constraints and computational capabilities, and calculates the potential security risks. The paper suggests possible risk treatment methods for effective secure system operation. In conclusion, the paper emphasizes the significant benefits of implementing smart irrigation systems, including improved water conservation, increased crop yield, and reduced environmental impact. Additionally, based on the security analysis conducted, the paper recommends the implementation of countermeasures and security approaches to address vulnerabilities and ensure the integrity and reliability of the system. By incorporating these measures, smart irrigation technology can revolutionize water management practices in agriculture, promoting sustainability, resource efficiency, and safeguarding against potential security threats.
Advanced control scheme of doubly fed induction generator for wind turbine us...IJECEIAES
This paper describes a speed control device for generating electrical energy on an electricity network based on the doubly fed induction generator (DFIG) used for wind power conversion systems. At first, a double-fed induction generator model was constructed. A control law is formulated to govern the flow of energy between the stator of a DFIG and the energy network using three types of controllers: proportional integral (PI), sliding mode controller (SMC) and second order sliding mode controller (SOSMC). Their different results in terms of power reference tracking, reaction to unexpected speed fluctuations, sensitivity to perturbations, and resilience against machine parameter alterations are compared. MATLAB/Simulink was used to conduct the simulations for the preceding study. Multiple simulations have shown very satisfying results, and the investigations demonstrate the efficacy and power-enhancing capabilities of the suggested control system.
Presentation of IEEE Slovenia CIS (Computational Intelligence Society) Chapte...University of Maribor
Slides from talk presenting:
Aleš Zamuda: Presentation of IEEE Slovenia CIS (Computational Intelligence Society) Chapter and Networking.
Presentation at IcETRAN 2024 session:
"Inter-Society Networking Panel GRSS/MTT-S/CIS
Panel Session: Promoting Connection and Cooperation"
IEEE Slovenia GRSS
IEEE Serbia and Montenegro MTT-S
IEEE Slovenia CIS
11TH INTERNATIONAL CONFERENCE ON ELECTRICAL, ELECTRONIC AND COMPUTING ENGINEERING
3-6 June 2024, Niš, Serbia
Embedded machine learning-based road conditions and driving behavior monitoringIJECEIAES
Car accident rates have increased in recent years, resulting in losses in human lives, properties, and other financial costs. An embedded machine learning-based system is developed to address this critical issue. The system can monitor road conditions, detect driving patterns, and identify aggressive driving behaviors. The system is based on neural networks trained on a comprehensive dataset of driving events, driving styles, and road conditions. The system effectively detects potential risks and helps mitigate the frequency and impact of accidents. The primary goal is to ensure the safety of drivers and vehicles. Collecting data involved gathering information on three key road events: normal street and normal drive, speed bumps, circular yellow speed bumps, and three aggressive driving actions: sudden start, sudden stop, and sudden entry. The gathered data is processed and analyzed using a machine learning system designed for limited power and memory devices. The developed system resulted in 91.9% accuracy, 93.6% precision, and 92% recall. The achieved inference time on an Arduino Nano 33 BLE Sense with a 32-bit CPU running at 64 MHz is 34 ms and requires 2.6 kB peak RAM and 139.9 kB program flash memory, making it suitable for resource-constrained embedded systems.
International Conference on NLP, Artificial Intelligence, Machine Learning an...gerogepatton
International Conference on NLP, Artificial Intelligence, Machine Learning and Applications (NLAIM 2024) offers a premier global platform for exchanging insights and findings in the theory, methodology, and applications of NLP, Artificial Intelligence, Machine Learning, and their applications. The conference seeks substantial contributions across all key domains of NLP, Artificial Intelligence, Machine Learning, and their practical applications, aiming to foster both theoretical advancements and real-world implementations. With a focus on facilitating collaboration between researchers and practitioners from academia and industry, the conference serves as a nexus for sharing the latest developments in the field.
We have compiled the most important slides from each speaker's presentation. This year’s compilation, available for free, captures the key insights and contributions shared during the DfMAy 2024 conference.
5. Life Beef Carbon : le plan carbone de la filière viande
Objectives and actions
Common methodologic framework
Development of harmonized tools
Training of farm advisers
Assessment of 2000 demonstrative farms:
• Representative of existing beef systems
• Quantify GHG emission
• Raise farmer GHG awareness
• Solutions to improve
Network of 170 innovative farms:
• Identify GHG mitigation technics and
associated costs
• Carbon action plan on each farm
• Visits and meetings between innovative
farmers and advisers
Beef sector carbon action plan
5
6. 3 tools compared and harmonized
GHG indicator: kg eq. CO2 / kg liveweight gain (LWG)
7. Life Beef Carbon : le plan carbone de la filière viande
Harmonization and comparison of the 3 tools on 20 study cases
0,0 5,0 10,0 15,0 20,0 25,0
FR1
FR2
FR3
FR4
FR5
IE1
IE2
IE3
IE4
IE5
ES1
ES2
ES3
ES4
ES5
IT1
IT2
IT3
IT4
IT5
Carbon footprint kg CO2e/kg LWG
Carbon Audit CAP'2ER Bovid-CO2
7
8. LIFE BEEF CARBON : tools
Pédagogie et sensibilisation
Conseil en élevage, aide à la décision 8
Simplified level 1 : 35 technical criteria
Advanced level 2 : 150 technical criteria
Environmental impacts (air, water, biodiversity, energy)
Nutrishing performance
Carbon action plan
Economic aspect
A certified tool to assess environmental
performance and build carbon action plan
19. Mapping of italian farms
Veneto: provinces of Padova, Venezia,
Rovigo, Treviso, Verona, Mantova, Vicenza.
Piemonte: provinces of Torino, Cuneo, Asti.
19
20. Mapping of spanish demonstrative farms
Type of farm
Store fo finish
Suckler to finish +
weaning purchases
Suckler to weaning
20
22. Life Beef Carbon : le plan carbone de la filière viande
Methane represent more that 60% of the emissions
22
61%
24%
15%
Emission distribution of 1700 demonstrative farms
according to the type of gaz
CH4
N2O
CO2
23. Life Beef Carbon : le plan carbone de la filière viande
Entheric methane represent more that 50% of the
emissions
56%
23%
6%
6%
5%
4%
Fermentation entérique
Gestion des effluents
Achats aliments et paille
Fertilisation
Energies directes
Achats d'engrais
Emission distribution of 1700 demonstrative farms
23
24. 11,316,7 5,4
(± 5,3) (± 4,3) (± 4,6)
kg éq. CO2/kg LWG
First results on 1700 demonstrative
farms
GHG
Emissions Carbon sequestration
Net carbon
footprint
kg éq. CO2/kg LWG kg éq. CO2/kg LWG
25. Beef production
= different systems
25
TIME
Suckler to weanling Fatteners
Suckler to finish
14-18 months
6-10 months
Suckler to steers
24-36 months
26. Focus on suckler to weanling systems :
Average of the system
Surface (ha) 117
Loading (LU/ha) 1,1
Productivity (kg lvwg /LU) 298
Concentrate (kg /kglvwg) 1,8
Age at first calving (months) 34,9
Interval between two calvings (days) 377
Organic Nitrogen (kg N orga/ha) 75
Mineral Nitrogen (kg N orga/ha) 25
GHG emissions (kgCO2 eq/kgLVWG) 18,3
GHG sequestration (kgCO2 eq/kgLVWG) 8,0
GHG net (kgCO2 eq/kgLVWG) 10,3
26
27. Focus on suckler to weanling systems :
GHG
emission
( kg eCO2/
kg lvwg)
27
28. Focus on suckler to weanling systems :
GHG
Emissions Carbon sequestration
Net carbon
footprint
18,3
8,00
10,3
kgeqCO2/kgliveweightgain
28
29. Focus on fattening systems in Italy:
Average of the system
Surface (ha) 60,7
Livestock rate (LU/ha) 6,1
Productivity (kg lvwg /LU) 899
Concentrate (kg /kglvwg) 5,1
Organic Nitrogen (kg N orga/ha) 247,6
Mineral Nitrogen (kg N orga/ha) 106,0
GHG emissions (kgCO2 eq/kgLVWG) 8,2
GHG sequestration (kgCO2 eq/kgLVWG) -0,1
GHG net (kgCO2 eq/kgLVWG) 8,3
29
30. Focus on fattening system :
8,2
-0,12
8,3
kgeqCO2/kgliveweightgain
GHG
Emissions Carbon sequestration
Net carbon
footprint
30
31. Focus on suckler to finish systems :
Average of the system
Surface (ha) 116
Loading (LU/ha) 1,6
Productivity (kg lvwg /LU) 372
Concentrate (kg /kglvwg) 1,9
Age at first calving (months) 34,1
Interval between two calvings (days) 377
Organic Nitrogen (kg N orga/ha) 130
Mineral Nitrogen (kg N orga/ha) 59
GHG emissions (kgCO2 eq/kgLVWG) 16,2
GHG sequestration (kgCO2 eq/kgLVWG) 2,8
GHG net (kgCO2 eq/kgLVWG) 3,4
31
33. Beef production = different systems
TIME
Suckler to weanling Fatteners
Suckler to finish
730 kg vif400 kg vif
Young bulls net
carbon
footprint
=
10,04 kg
eCO2/kgLWG
Young bulls net
carbon
footprint
=
9,4 kg eCO2 /
kgLWG *
730 kg vif
* Allocation to the young bulls
33
34. First outcomes
• Variability between systems and intra system
• There is a mitigation potential on all sources of emissions and carbon
sequestration
• Work on the innovative farms to identify the mitigation technics and
associated reduction potential
36. 3. Mitigation potential on
French innovative farms
Production system
Area
(ha)
Number of Life
stock unit (LU)
GHG net
(kgCO2 eq/kgLVWG)
Before carbon action
plan
GHG net (kgCO2
eq/kgLVWG)
After carbon action
plan
% gain / GHG
net
Suckler to weanling
average 140 144 10,84 9,48 - 14%
Suckler to finish
average 146 165 11,76 10,98 - 7%
38. 4
3
3. Mitigation potentialon
Irish innovativefarms
Production system Area
(ha)
Number of
Livestock unit
(LU)
GHG net
(kgCO2 eq/kgLVWG)
before carbon action plan
GHG net
(kgCO2 eq/kgLVWG)
after carbon action plan
% gain / GHG
net
Suckler to weanling 44 53 9.7 7.9 - 18 %
Suckler to store 57 81 10.5 8.8 - 16 %
Suckler to finish (bulls) 62 140 9.1 7.7 - 16 %
Suckler to finish (steers) 92 142 8.3 7.1 - 15 %
Dairy calf to beef 53 93 7.7 6.5 - 15 %
Total Average 61 109 9.0 7.6 - 16 %
38
39. 44
Example of a carbon
action plan on an
irish innovative farm
39
40. 3. Mitigation potential on
Spanish innovative farms
Production system
Area
(ha)
Number of
Livestock unit
(LU)
GHG net
(kgCO2 eq/kgLVWG)
Before carbon action
plan
GHG net
(kgCO2 eq/kgLVWG)
After carbon action plan
% gain / GHG
net
Suckler to weanling 325 108 11,93 10,4 -13%
Suckler to finish 61,3 608 5,02 4,57 -9%
Fattening system 846 549 9,16 7,9 -14%
Average 411 421 8,7 7,63 -12%
42. Production system
Area
(ha) Number of
Livestock unit (LU)
GHG net
(kgCO2
eq/kgLVWG)
Before carbon
action plan
GHG net
(kgCO2
eq/kgLVWG)
After carbon
action plan
% gain/GHG
net
Fattening systems 66,45 253,31 8,66 8,03 - 7%
3. Mitigation potential on Italian
innovative farms
44. 4
9
First outcomes
• High variability of mitigation potential depending on :
-systemstype
-systemoptimization
• Depends on advisory and economic support
• Depends on weather conditions, natural environment and scientific knowledges (ex : warming factors)
• Most of the mitigation strategies are not visible in the inventories
44
45. Suckler systems
• Carbon sequestration
• Age at first calving
• Productivity management (interval between two calvings, limit the unproductive animals…)
Main mitigation technics
Fattening systems
• Methanization
• Animal performance
• Animal nutrition
• Manure management and application
• N fertilizers reduction
• Energy production (other than methanization)
46. Mitigation technics
Methanization
• Description of the technics
-Digestibility: Including more concentrates, supplementing animal diets with edible lipids or
forage quality;
• Wich system: Fattening system mainly
• Indicators: % of fat, digestibility
• Mitigation expected: -15% +5%
• Impact on economy: Better digestibility also often leads to an increase in production, i.e. milk production or
weight gain, making it a cost-efficient reduction measure.
47. Mitigation technics
Animal performance
• Description of the technics
Improve animal health: water quality, health program…
Increase average daily weight gain
Animal welfare handling: density of pens, homogeneity lots…
Daily renewal of bed
Weekly bed removal
• Indicators: LWG, animal density, mortality,
• Mitigation expected: from -2 to -10 %
• Impact on economy: several of the measures have benefits such as increased production efficiency which could be an
incentive for the farmers.
• Limits: production efficiency is not valued and accounted for by the political system.
48. Mitigation technics
Nutrition
• Description of the technics
-Multiphase feeding: Precision protein feeding, optimize concentrate crude protein content
-Feed agro-industry by-products
-Replace soy cake or meal with low emission
• Wich system: Fattening system mainly (Agro-industry by-products also used in Suckler systems)
• Indicators: protein level, kg by products use/ kg of concentrates?, % selfsufficiency
• Mitigation expected: -5 -10%
• Impact on economy: Using by-product cost-efficient reduction measure.
49. Mitigation technics
Manure storage and management
• Description of the technics
- Store solid manure on solid impermeable floor equipped with a drainage system, fast removal of slurry from the
barn, bedding frequently removal
- Areation;
- Composting;
- Additives application
- Application in the own crops and in nearby farms;
- Low emission slurry spreader
• Wich system: Fattening system mainly
• Indicators: Storage time, technique applied before spread, slurry spread method,
• Mitigation expected: 0 to -10%
50. Mitigation technics
Fertilizer application
• Description of the technics:
- reduction of mineral nitrogen application,
- timing of application (even with precision farming devices - GPS);
- substitution of nitrate-based fertilizers with ammonium-base fertilizers
• Indicators: kg of N fertilizers/ha
• Mitigation expected: between 0 and -5%
• Impact on economy: expected profitable
51. Mitigation technics
Energy
• Description of the technics:
- photovoltaic energy;
- anaerobic digestion;
- optimization of tractors’ power and benchmark
• Indicators:
- kWh produced;
- kwh/ha for agricultural operations
• Mitigation expected: between -1% and -2%
• Impact on economy: expected profitable if substained
52. Mitigation technics
Carbon sequestration
• Description of the technics:
- mantain or increase permanent grasslands;
- mantain or increase hedges;
- minimum or no tillage
• Indicators:
- surface of permanent grasslands (ha);
- length of hedges (linear meters);
- surfaces managed with minimum or no tillage (ha)
• Mitigation expected: up to -10%
• Impact on economy: expected profitable, if substained in case of grasslands and hedges
54. Maîtrise de la productivité
• 1. Disposer d’animaux en bonne santé:
• bon niveau sanitaire: respect des protocoles sanitaires avec son vétérinaire
• alimentation équilibrée respectant les besoins des différents stades physiologique
• soins rapides + politique de sélection et/ou de réforme adaptée
• 2. Trouver équilibre entre animaux improductifs et animaux productifs
• Détection rapide des femelles vides et mis en réforme
• Surveillance accrue, échographie
• Adapter son taux de renouvellement au potentiel des femelles et leur capacité à
conserver leur potentiel de reproduction sans dégrader les performances
zootechniques
• Réduire l’âge au vêlage des génisses de renouvellement
55. 5
1
Mitigationtechnics in suckler
systems
Age at First Calving (AFC)
• Current average age at first calving
Increases cows life time productivity – More calves per cow
• Systems – Suckler to weanling, Suckler to steer, Suckler to finish
• Indicators
• Replacement heifers body condition and weight
• Pregnancy rate 35 days after breeding season (Irish indicator)
• Mitigation expected
• Reduces methane emission intensity
• Cuts beef carbon footprint by 0.3% per month
• Impact on economy : Positive effect
56
56. Double performance :
économique et environnemental
Levier d’action PBVV/UGB GES nets/kgvv Economie
Réformer les vaches vides (de 10% à 0%) +8,5% -7,4% +1,9% EBE/PB
Maitriser le taux de gestation (de 82 à 94%) +6,7% -10,5% +1,6% EBE/PB
Limiter la mortalité des veaux (de 16% à 7%) +9,7% -11,9% +3,5% EBE/PB
Maintenir les qualités maternelles ( +1,5 litres/ vaches/jour) +6,1% -3,9% +3,9% EBE/PB
Réduire l’âge au premier vêlage de 3 à 2 ans (60% à 2 ans) +7,8% -7,3% +1,2% EBE/PB
Maitriser le vêlage à 2 ans (20% à 60% à 2 ans) +6,6% -5,7% +2,3% EBE/PB
Idele, 2013, Analyse de
la BDD Inosys
57. 5
3
Mitigationtechnics
General farm practices
• Grassland management
• Incorporation of legumes into pasture
• Optimise soil pH and soil fertility (P and K index)
• Increase soil Organic Matter (application of organic fertilizer)
• Extend grazing season
• Diet
• Improve feed quality (e.g. rotational grazing, silage quality)
• Use of by products in concentrate feed
58
59. Conclusion et perspectives
• Very good return of the 2000 volunteer farmers
• Demonstration actions increased farmers interest to improve environmental
performances
• All the livestock breeding families represented
• Positive correlation between farm economics and carbon emissions
• Deployment beyond the initial scope
• A transnational, proactive and networking approach for the beef sector