Meeting the rising demand for Animal Source

Similar documents
Livestock production in developing countries: globally significant and locally relevant John McDermott Deputy Director General

Production systems for the future: efficiency, livelihoods and the environment Mario Herrero

Livestock and GHG emissions: mitigation options and trade-offs

Livestock and climate change

About livestock, resources, and stakeholders. Henning Steinfeld, Carolyn Opio, FAO-AGAL Brasilia, 17 May 2011

Integrated Pastoral and Agro-Silvo-Pastoral Systems in the Drylands. Constance L. Neely and Caterina Batello June 2011

Challenges of the livestock smallholder sector in a changing context

Livestock Sector Trends and Development Issues. François Le Gall, World Bank

Pasture Management for Carbon and

Facts and fiction about livestock and climate change

Global Agenda of Action in Support of Sustainable Livestock Sector Development. Rome, 2 April 2012

Livestock and Climate Change in South Asia. Carolyn Opio 26 August 2008 Dhaka

Professorr & Air Quality Specialist Department of Animal Science

Livestock s Long Shadow Environmental Issues and Options

AGRICULTURE & FORESTRY

The archived presentation is available at: 1

Climate smart livestock systems: lessons and future research

BIODIVERSITY AND MEAT CONSUMPTION

Green House Gas Emissions from Agriculture

Actions to mitigate greenhouse gas emissions from milk production

1.5 degrees C & 10 billion people: How to feed the world while mitigating climate change?

Achieving Emissions Reductions

Dynamics of livestock production systems, drivers of change and prospects for animal genetic resources

Sustainable Livestock Systems: what might the future hold?

Climate change and agriculture. Doreen Stabinsky Greenpeace International

Animal Health and Greenhouse Gas Emissions Intensity Network

Valuation of livestock eco-agri-food systems: poultry, beef and dairy

Livestock, climate change and resource use: present and future

Livestock and climate change: can we steer a path between the devil and the deep blue sea?

Animal Protein Production Impacts and Trends Dr. Judith L. Capper

Livestock solutions for climate change

Efficiency gains for enteric methane mitigation and productivity: contribution to CSA and investment opportunities

Challenges in assessing mitigation and adaptation options for livestock production: Europe, Africa & Latin America

What is manure worth?

Absolute emissions 1 (million tonnes CO 2 -eq) Average emission intensity (kg CO 2 -eq/kg product) Milk 2 Meat 2 Milk Meat Milk 2 Meat 2

Livestock s Long Shadow Environmental Issues and Options

Life cycle assessment: How does New Zealand agriculture compare internationally?

ADDRESSING METHANE EMISSIONS FROM LIVESTOCK

HOW CAN WE SUPPORT THE DESIGN OF LIVESTOCK NAMAS? Anne Mottet, Livestock Policy Officer, FAO-AGAL

Valuation of livestock eco-agri-food systems: poultry, beef and dairy. Willy Baltussen, Miriam Tarin Robles & Pietro Galgani

Achieving Agenda 2030: Livestock research and the transformation of small-scale production

FOOD EMISSIONS. direct agricultural emissions ABOUT BIG FACTS

Potential options for mitigation of climate change from agriculture. Agustin del Prado

Climate Change and Agriculture in NZ OECD Committee on Agriculture 19 November 2009

'Everyone to the Plate: Sustainable Food Production Must be an Inclusive Solution. Shawn Archibeque. World Population

The Carbon Navigator. Pat Murphy, Paul Crosson, Donal O Brien, Andy Boland, Meabh O Hagan

Frank van Ooijen Corporate Director Sustainability. Food Security & Genetic Diversity An agrofood business perspective

Climate-smart dairy systems in East Africa

Annex1 - Global maps. Map 19 Estimated distribution of small ruminants Source: FAO, 2006g.

A draft strategy (Revised version: 30 January 2013)

Effect of ruminant production systems on C-footprint of milk and meat

Grassland management strategies to mitigate and adapt to climate change

Food security and animal production what does the future hold?

Key messages of chapter 3

Greenhouse Gases and Animal Agriculture Finding a Balance Between Food and Emissions

GLOBAL WARNING: CLIMATE CHANGE & FARM ANIMAL WELFARE

Livestock development and climate change: The benefits of advanced greenhouse gas inventories

Why pulses? Source: Principles of Nutrition and Dietetics, primary research

Life cycle assessment facts and figures when evaluating environmental impact of our food choices

Livestock s contribution to climate smart agriculture

Montpellier, 13 Juillet, 2011

The Future of Food from the Sea

Cool Farming Climate impacts of agriculture and mitigation potential

Table of Contents. Synthesis. DRAFT Landing Page for Feeder Study on Livestock systems

GEF 2020 Strategy does not really seem to be long-term? STAP meeting March 21, 2013

The Environmental Impact of Diet

The next step in the sector s sustainability journey Brian Lindsay Dairy Sustainability Framework May 2014

influence on agricultural practices 12, 18, 33, 221-5, 233, 235, 298, 301 Crops (see cash, rotations)

Food Security and World Changes and Trends since 1992

Looking Forward to 2030: Nitrogen and the Sustainable Development Goals

International initiatives in support of agricultural greenhouse gas mitigation

Livestock Futures An international Conference about The Future of Livestock Keeping Bonn, 6-7 September, 2012

Sustainable Agricultural Development for Food Security and Nutrition: What Roles for Livestock?

ENERGY, AGRICULTURE AND CLIMATE CHANGE

Global trends and challenges in nutrient management

Agri-environmental reporting - a national experience

African livestock farming. International CSO seminar Debrecen 27/05/11

Climate Change Consultation Contribution

Impact of expanded production of biofuels on non-co 2 GHG emissions. A note prepared for California Air Resource Board. Alla Golub.

Constrains and Solutions to Reduce Environmental Impact for Developed Livestock Farming

Opportunities for Livestock in Promoting Rural Commercialization in Tanzania

1.1 Role of agriculture in the Ethiopian economy

Soil Food & Biofuels Is this sustainable?

Improving Nutrient Management for Animal Production Systems. Dr. Tom Sims College of Agriculture & Natural Resources University of Delaware

BrazilianBeef. A Roadmap to Sustainability

Sara J. Scherr, EcoAgriculture Partners Navigating the Global Food System in a New Era IAMA, Boston, June 21, 2010

Biofuels and Food Security

Global Challenges Symposium. Production

One Blue Dot Glossary

Greenhouse Gas Emissions on Northern Ireland Dairy Farms

Global Dairy Agenda for Action Climate Change

Feed availability inducing structural change in the poultry sector

The Future of Food and Agriculture: Now s the Time for Change

Methane Emissions from Enteric Fermentation and Rice Cultivation Options for inclusion in the M2M Partnership

Opportunities for climate change mitigation in the Brazilian agricultural sector. Carlos Clemente Cerri

Worksheets accompanying the agriculture sector

Animal numbers in New Zealand Revised 2004 Agricultural sector calculations: emissions from domestic livestock and agricultural soils

Japan s National Greenhouse Gas Emissions in Fiscal Year 2013 (Final Figures 1 ) <Executive Summary>

Biofuels Toward the Next Generation. BCSEA Energy Solutions, June 10, 2008 Patrick Mazza, Research Director, Climate Solutions

AC H I E VING F O O D SECURITY A N D CLIMATE C H A N G E M I T I G ATION T H E POLICY CHALLENGE F O R A N I M A L

Transcription:

Meeting the rising demand for Animal Source Implications Foods for Land use and natural resource in the developing world Jimmy Smith and Mario Herrero THE WORLD BANK EAAP 2011 29 th August Stavanger, Norway.

OUTLINE DRIVERS AND TRENDS RESOURCE CONSTRAINTS AND IMPLICATIONS HOW TO RESPOND TO RESOURCE CONSTRAINTS

Drivers and trends

Annual growth in per capita consumption of livestock products

Demand for livestock products to 2050 Annual per capita consumption Total consumption year Meat Milk Meat Milk (kg) (kg) (Mt) (Mt) Developing 2002 2050 28 44 44 78 137 326 222 585 Developed 2002 2050 78 94 202 216 102 126 265 295

Population Growth in Developing and Industrialized Countries: 1750-2050

A strong increase in demand for meat and milk as income grows 5 Log per capita co onsumption of meat 4 3 2 1 The Livestock Revolution 0 China India Trend 4 5 6 7 8 9 10 11 Log per capita GNP Livestock to 2020: The Next Food Revolution, a joint IFPRI, FAO, ILRI study.

Urbanization 8

17 billion animals in diverse farming systems 9

Mixed systems produce significant amounts of milk and meat Developed countries dominate global milk production, significant export, but Mixed systems produce 65% beef, 75% milk and 55% of lamb in the developing World Herrero et al 2009

Resource implications

Land use By 2050, 33 % more people to feed 70 % more meat and milk 12 % of global land is crop land (1/3 thereof is for feed) 26 % of global land is pasture Expansion of biofuels will continue to the foreseeable future Expanded yields must come from productivity increase

The world will require 1 billion tonnes of additional cereal grains to 2050 to meet food and feed demands (IAASTD 2009) Additional Grains 1048 million tonnes more to 2050 Livestock 430 million MT Monogastrics dominate human consumption 458 million MT biofuels 160 million MT

Systems and livelihoods in transition Can we influence the next transition for the benefit of society and the environment? W. Africa 1966 pastoral system 2004 crop-livestock system

World Land Acquisition

A Global Water Crisis 2 billion people lack access Demand is growing; freshwater is getting scarce 70 % of total freshwater use is for agriculture

Livestock and water Direct water use is small Indirect water use and impact on water cycles is huge: Water for feed production. Impact of grazing on water quantity and water quality. Water pollution from livestock waste.

Area under cultivation and rates of growth in cereal yields World Bank 2007

International prices for maize and soy US $ /ton

LIVESTOCK AND NUTRIENTS Manures provide 14%, 9% and 40% of N, P and K inputs for global crop production, respectively. Livestock crucial in smallholder systems as a source of fertilizer. but at the same time concentrations of nutrients in industrial systems cause water pollution and waste disposal problems (lack of regulation). Herrero et al. 2009

Intensive systems: need for learning from past experiences? Livestock mediated nutrient overloads (Gerber et al 2002) The developing world adopted industrial practices.. but not the but not the regulations!!!

N 2 O Livestock and Greenhouse Gases 18% of global emissions (FAO 2006) Deforestation Enteric fermentation CH 4 CO 2 Production Chemical N. fertilisants fert. production N Energie On-farm fossile fuel ferme Déforestation Deforestation Sol OM cultivé release from ag. soils Désertification Pasture degradation pâturages Transformation Processing fossil fuel Transport fossil fuel Fermentation Enteric fermentation ruminale Effluents, Manure storage stockage/traitement / processing Epandage N fertilization fertilisants N Production Legume production légumineuses Effluents, Manure storage stockage/traitement / processing Effluents, Manure spreading épandage/dépôt / dropping Effluents, Manu indirect emission emissions indirecte Prepared by Bonneau, 2008

How to respond?

Summary of issues Despite higher input costs, sector growth will continue Intensive production has lower GHG emissions per unit of product Huge performance gaps within systems and across countries Some technical solutions are available but incentives need to be better align

Summary of issues (continued) Livestock is at the centre of most contemporary resource use issues -- land, water, energy, nutrients (and of course climate change) Demand for livestock products will likely continue to be strong Efficiency is key to reducing resource requirements and environmental impacts; Technology development and adoption need to accelerate Supporting policy frameworks are needed Stakeholder participation

Sustainable intensification Better feeds Better breeds Better health Producing at higher resource use efficiencies (land, water, nutrients, GHG) where feasible + markets, incentives and others...

Sustainable intensification -institutional aspects Appropriate policies and regulations Managing externalities Managing nutrient loads Managing emissions Promoting an enabling environment Infrastructure development

Productivity gains and efficiency --illustrated-- Intensive production has lower GHG emissions per unit of product Huge performance gaps within systems and across countries Some technical solutions are available but incentives need to be better aligned

Effects of Intensification on GHG emission intensity Dairy systems Rwanda China Gerber et al., 2011

Comparison of resource inputs and waste outputs: dairy production in 1944 and 2007 in United States 1944 2007 Milk produced, billion kg 53.1 84.2 Resources/waste per billion kg milk produced % of 1944 Total dairy population (10 3) 948 202 21 Resource use Waste Output GHG emissions Feed, kg (10 9 ) 8.26 1.88 23 Land, Ha (10 3 ) 1,705 162 10 Water, Liters (10 9 ) 10.76 3.79 35 N excretion, kg (10 6 ) 17.47 7.61 44 P excretion, kg (10 6 ) 11.21 3.31 29 Manure, kg (10 9 ) 7.86 1.91 24 Methane, kg (10 6 ) 61.8 26.8 43 Nitrous oxide, kg (10 3 ) 412 230 56 Carbon footprint per billion kg of milk, kg of CO2 (10 9 ) 3.66 1.35 37 Capper et al. 2009

Henning.Steinfeld@fao.org

g Global Agenda of Action A Multi-stakeholder Platform for generation and sharing of knowledge, experiences and practices. Advocacy, including within existing inter-governmental and other processes. Stakeholder consultations and awareness raising initiated by the Dialogue Group FAO and the World Bank. First multi-stakeholder platform meeting held in Brasilia, Brazil from 17 to 20 May 201. Next in Thailand at end of November this year.

Thank you THE WORLD BANK