Assessing the GHG Mi-ga-on Poten-al of the US Agricultural Sector

Similar documents
Field to Market: What is Sustainable Agriculture? Illinois Soybean Associa/on July 2012

U.S. Soy: Sustainability & Trade Brent Babb, U.S. Soybean Export Council

System of Rice Intensification Research: a Review

Science Based Metrics for Sustainable Outcomes In Agriculture

Building healthy soils for healthy crops LORI HOAGLAND ASSISTANT PROFESSOR PURDUE UNIVERSITY

AB 32 and Agriculture

Law Department Strategic Planning. Moving from Vision to Execu;on

Quality Management System (QMS) Refresher Training

Agriculture Industry s Role in Developing Metrics for Improving Soil Health

New FAO data products and tools Since 2009

Sustainable Intensification of Agriculture: Strategies and Partnerships. NGFA April 1, 2014

A Management Systems Approach to Ergonomics Programs. Elise Condie, M.S., CPE Senior Consultant

Building Energy Quotient ASHRAE s Building Energy Labeling Program

Sustainability Indicators for Agriculture: A Case Study in Collaborative Measurement

Jointly developed by C-AGG and Chesapeake Bay Foundation December 2015

Pilot Climate Change Adapta1on Market Study: Turkey

Climate Adapta<on at SeaDle Public U<li<es

Northern California Climate Adapta2on Project

Good morning. I am Eduardo López, the sponsor of this project. I am director of regional opera>ons for our company Movistar, which is the cellphone

Greenhouse gases and agricultural: an introduction to the processes and tools to quantify them Richard T. Conant

Introduc)on. Safety Health Programs Liberty Mutual es)mated that employers paid

ISFL Methodological Approach for GHG accounting

Patrick White Senior Consultant Akvaplan-niva

THE INTRODUCTION THE GREENHOUSE EFFECT

Climate Change and Agriculture: How is USDA Helping Agriculture Respond

Sustainable development has been widely

Agriculture and Climate Change

Strategic View. Kerry Preete Executive Vice President, Global Strategy

FOR RESOURCEFUL GROWERS SEEKING TO ENHANCE PRODUCTIVITY

Curbside recycling optimization Project

Hydroponics For Vegetable Produc6on. Jeff Werner Watanuska LLC

Maryland Nutrient Management Program

Life cycle analysis for wood pellets

US- China Collabora.on on Cleaner Coal Technology

Social Life Cycle Assessment: A comparison of wastewater treatment facilities in Mexico. 3rd edition of the International Seminar on Social LCA

10 Million Acres of Opportunity. Planning for a decade of sustainable growth and innovation in the Canadian soybean industry

Breakout Session 2. Ques0on 5

Benefits of Crop Protection Products on Society and Agriculture

Principles of Information Systems

The Strategic Plan for Biodiversity , the Aichi Biodiversity Targets and National Implementation. CBD Secretariat 3 to 10 October 2011

NORTH COUNTRY REGIONAL AG TEAM Page 1

Who is the GHG Protocol? Why, and how, is the GHGP addressing renewable energy accoun/ng ques/ons? How has the GHGP framed the accoun/ng ques/ons?

An Analysis of the Human Resource Prac5ces in the SME Sector of Pakistan: Case Study of Bahawalpur Region

Precondi)ons for sustainable biomass sourcing, improved models, monitoring & governance ExCo 74 workshop Land use and Mi6ga6on of iluc,

Scrum. an agile development process methodology. - Abhijit Mahajan - Neelam Agrawal

Blas%ng weed compe%%on away! Sam Wortman Assistant Professor Department of Crop Sciences University of Illinois

Carbon Footprint. Carbon Footprint: some defini7ons

Best Practices for Delivering BPM Projects. Jörg Grote BPM Solution Architect. Copyright TIBCO Software Inc.

Working Groups Report: Making Federa5on Easier

Smart Whole Plant Op0miza0on:

Price Supports and Climate Change

Low Carbon Communi1es The roles of smart planning tools and place-based solu1ons

Electric Providers Alliance and Nuclear Energy in Missouri. Rep. Jeanie Riddle Assistant Majority Floor Leader Missouri House of Representa?

Climate Change and the Agricultural Economy

Evolu&on of Simple, Modified, DIY Terra Preta Sanita&on for the Home. Jeff Holiman PHLUSH.ORG

Proposal Texas AgriLife Research Air Quality Research Program FY

Successful Approaches to Reducing Greenhouse Gas Emissions from Australian Agriculture :

The economics of biofuels, food and the environment

Integrated and collabora.ve approach among Technical Agencies, Industry and University: the Sarroch case study (Sardinia, Italy)

Jason Henderson Vice President and Branch Executive Federal Reserve Bank of Kansas City Omaha Branch April 25, 2012

CLIMATE SMART AGRICULTURE and HEALTHY SOILS

MARYLAND NUTRIENT MANAGEMENT PROGRAM

Climate Change and Ontario Agriculture

ADDRESSING METHANE EMISSIONS FROM LIVESTOCK

Canadian Bioenergy Situa0on and Opportuni0es in Canada s Wood Pellet Sector. Gordon Murray, Execu0ve Director

Optimizing Oat Yield, Quality and Standability in Central Alberta

NASA Con(nuity Measurements ESS Concerns

How will AB 32 -Global Warming Solutions Act - Affect California Agriculture?

Phosphorus Fertilizer Decisions

Nutrient Management on Dairy Farms. Ev Thomas William H. Miner Agricultural Research Institute Chazy, N.Y.

Product Category Rules (PCR) (Approved PCR ID: PA-AA-01)

APSIM Use in Catchment Models and potential use in BYP scenario analyses

Outline 1/13/15. US Fish and Wildlife Service Ban GMOs on all Na<onal Wildlife Refuges. United States 561 NWR Over 150 million acres managed

Environmental Credit Trading

COTTON AUSTRALIA LIMITED

The state of the art of Open Data in Finland

Planting and Harvesting Crops

NRSP10 Crop Databases

Mount Polley Mine Tailings Breach Ministry of Environment Regulatory Response

Wasted. fertilizer. is wasted. money. Make the most of your fertilizer investment with AVAIL and NutriSphere-N

Extending Economic Life of Ogallala Aquifer with Water Conservation Policy Alternatives in the Texas Panhandle

Advantages and disadvantages of energy resources

About Almonds and Water

ADVOCACY SAFETY & SECURITY NUTRIENT STEWARDSHIP 52 THE COMMUNICATOR

Do Good, Be Happy We the people of India. Partner contact:

Nutrient Management in Crop Production

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

TARGETING WATERSHEDS FOR RESTORATION ACTIVITIES IN THE CHESAPEAKE BAY WATERSHED. Technical Documentation October 4, 2002

NRCS EQIP and CSP IPM Programs. IPM Implementation Trends, Cost Effectiveness, and Recommendations for Optimizing NRCS Investments in Conservation

Assessing Regional Water Impacts of Biofuel Production Scenarios

Rethinking US Agricultural Policy:

Driving a Food Safety Culture. June 8, 2017 Presented by: David Acheson

March 8,2014 To Whom It May Concern,

U.S. ROUNDTABLE FOR SUSTAINABLE BEEF INDICATOR AND METRIC SUMMARY

Institutional Food Program Programme d alimentation institutionelle. Learning Group Convening Oct 14 16, 2014 Rencontre, Groupe d apprentissage

Saskatchewan Oat Development Commission (SASKOATS) Strategic Plan 2017 and Beyond

Project: Best praccces for Agricultural Wastes (AW) treatment and reuse in the Mediterranean countries

U.S. Agriculture: Commodity Situation and Outlook

Project Controls Expo - 31 st Oct 2012

The Role of Agriculture and Forestry In Emerging Carbon Markets

Transcription:

Assessing the GHG Mi-ga-on Poten-al of the US Agricultural Sector C-AGG Meeting Allison Thomson July 14, 2015

Field to Market: The Alliance for Sustainable Agriculture focuses on defining, measuring and advancing the sustainability of food, fiber and fuel production George Thoma

How We Define Sustainable Agriculture Mee7ng the needs of the present while improving the ability of future genera7ons to meet their own needs by: Increasing produc7vity to meet future food and fiber demands Improving the environment Improving human health Improving the social and economic well- being of agricultural communi7es

Guiding Principles Engage the full supply chain including producers Focus on commodi7es crops with unique supply chains and traceability issues Science based Outcomes based Technology neutral Commitment to individual grower data privacy Emphasis on con7nuous improvement Measure broad- scale trends and field- scale outcomes

Deliverables: What We Are Doing Na7onal indicators report: Documenta7on of overall trends Grower Fieldprints: Individual opportuni7es for con7nuous improvement Supply chain projects: Direct engagement in con7nuous improvement Public data and models Collabora-vely developed Outcomes based

Individual Companies SeLng Sustainability Goals Reduce GHG emissions across value chain by 25% by 2020 Sustainably source key agricultural ingredients by 2020 Expand acreage in Field to Market to 1 Million acres by 2020 Sustainably source 100 percent of 10 priority ingredients by 2020 Expand acreage in Field to Market to 2.5 Million acres by 2015 Reduce GHG emissions in fer7lizer management Halve the GHG impact of our products across the lifecycle by 2020 Source 100% of our agricultural raw materials sustainably by 2020 Halve the environmental footprint of the making and use of our products as we grow our business by 2020 Reduce and op7mize the resources required to produce that food and driving more transparency into its supply chain Fer7lizer op7miza7on on 14 Million acres of U.S. farmland by 2020

Working with Growers in Fieldprint Projects Demonstrate use of calculator on the ground to test u7lity at the grower level and through the supply chain Engage farmers across geographies and crops, through supply chain Measuring 8 metrics of sustainability, including: GHG emissions energy use irriga7on water use water quality soil erosion soil condi7oning land use habitat poten7al

Supply Chain Partnerships in 20 States Corn Cotton Potatoes Rice Soy Wheat 9

Greenhouse Gas Metric Accounts for the total (direct and embedded) GHG emissions from crop produc-on. Inputs include field loca7on, crop rota7on, 7llage and management systems, chemical and manure applica7ons, drying and transporta7on Units of greenhouse gas (GHG) emissions per unit of produc7on, e.g., CO2e per bushel Direct Emissions Coverage Equipment opera7on including product and manure applica7on Irriga7on energy use Crop drying & transporta7on to storage or sale Tier 1 nitrous oxide emissions es7mate based on N applica7on rate for fer7lizer, legume cover crops, and manure (1.4% of applied N direct and indirect emissions) Embodied GHG Fer7lizer product applied N- P- K (Based on GREET model values) Crop protec7on products Seed Not included residue burning lime carbon sequestra7on

GHG Metric Development Future considera-ons for GHGs Moving toward a more management driven metric for nitrous oxide that considers 4Rs, not just rates, for nutrient management Adding sophis7ca7on to rice methane - moving from a constant toward regional variability and including relevant prac7ces. Considering revisions based on the recent USDA GHG guidelines report Incorpora7ng methods for residue burning, lime, and carbon sequestra7on Alignment with Farm Smart tool GHG metric for represen7ng feed produced on dairy farms 11

Scaling up Field to Market is moving from a pilot phase into an implementa7on phase Scaling from 1 million to 50 million acres of land engaged by 2020 Developing ISEAL compliant standards for verifiable claims of par7cipa7on, measurement and impact on agricultural sustainability goals Release of a next genera7on Fieldprint Calculator that can be integrated across plaaorms (2016) In 2014 began to set goals for the organiza7on as a whole 12

Field to Market Goals 2014 Land Use Sustained improvement of land use efficiency by increasing produc7vity on US cropland, conserving na7ve habitat, and enhancing landscape quality. Greenhouse Gases Sustained reduc-on in greenhouse gas emissions from U.S. cropland per unit of output. Water Quality Sustained contribu7on to solving regional water quality problems as evidenced by reduc7ons in sediment, phosphorus, nitrogen, and pes7cide loads from U.S. cropland. Soil Conserva-on Sustained reduc7on in soil erosion to tolerable levels or below on all U.S. cropland. Irriga-on Water Use Sustained contribu7on to solving regional water scarcity problems through con7nual improvement in irriga7on water use efficiency and conserva7on. Energy Use Sustained improvement in energy use efficiency from U.S. crop produc7on. 13

Longer term evolu7on of FTM Goals Field to Market will outline the progress that can be made for the areas above, and conduct further assessment of what will be needed to accomplish the following: Overall reduc-ons of greenhouse gas emissions from U.S. crop produc-on, including a considera-on of carbon sequestra-on. Conserva7on of na7ve habitat, enhancement of landscape quality, and improvement of conserva7on outcomes Overall maintenance and improvements to soil health. 14

GHG Goal Considera7ons A subgroup of members and staff has been tasked with iden7fying poten7al avenues for a more specific GHG goal Considering FTM engaged acreage, crops and geographies Considering what is an achievable, measureable level of impact Opportuni7es to collaborate with aligned sustainability efforts Opportuni7es to leverage previous research and modeling of agricultural GHG reduc7on poten7al 15

GHG Goal Considera7ons Is a direc7onal or quan7ta7ve goal scien7fically jus7fied? What baseline informa7on on historical trends and the poten7al for future reduc7ons is available? What scenarios can we consider for future improvements based on direct FTM engagement? How can the sustainability outcome - GHG emissions - be accurately quan7fied and verified? 16

Thank You For More Information Visit www.fieldtomarket.org Field to Market, the Field to Market logo and Fieldprint are registered trademarks of Field to Market. All other brand names, product names, or trademarks belong to their respective holders. 2015 Field to Market. All rights reserved. Eric Socolofsky