Field to Market The Keystone Alliance for Sustainable Agriculture General Background.

Slides:



Advertisements
Similar presentations
The Keystone Alliance for Sustainable Agriculture 1.
Advertisements

Field to Market: What is Sustainable Agriculture? All-Party Parliamentary Group on Science and Technology and Agriculture June 26, 2012 Fred Luckey, Chairman,
Climate Change Impacts and Adaptation in Agriculture Daniel J. Archambault Research Scientist Alberta Research Council February 25 th,2003.
Agricultural Land Use Lori Lynch, Professor Agricultural and Resource Economics University of Maryland.
Sustainability: implications of global trends for U.S. production agriculture Toward Sustainable Agricultural Systems in the 21 st Century Mike Johnson,
Sustainability in Agriculture Jennifer Elwell Kentucky Corn Growers/Kentucky Small Grain Growers Farm PR Network.
Overcoming Barriers to Wind Development in Appalachian Coal Country Brent Bailey, Ph.D. Director, Appalachia Program The Mountain Institute An overview.
Field to Market The Keystone Alliance for Sustainable Agriculture Farmer Cooperative Conference December 7, 2010.
Future trends of commercial agriculture in this region.
DRAINAGE WATER MANAGEMENT FOR MIDWESTERN ROW CROP AGRICULTURE DWM PARTNER FORUM II JUNE 15, 2011 WAYNE HONEYCUTT USDA-NRCS.
Sustainable Pork Jamie Burr Tyson Foods Chair, Environment Committee National Pork Board.
Organic Production and Sustainable Enterprises for Kentucky Lee Meyer, Dept of Ag Economics Followed by Adam Watson, Ky Dept. of Ag the Organic Certification.
Andrea L. Ludwig, Ph.D. Assistant Professor University of Tennessee Knoxville, TN Marty Matlock, Ph.D., P.E., C.S.E. Professor and Area Director, Center.
Ⓒ Olof S. Tackling the challenges in commodity markets and on raw materials Pierluigi Londero DG for Agriculture and Rural Development European Commission.
Photos courtesy of USDA Jason Henderson Branch Executive Federal Reserve Bank of Kansas City Omaha Branch May 14, 2008 U.S. AGRICULTURE: What Goes Up Must.
Lake Springfield Watershed Nutrient Management Project February 11, 2015.
“As the state’s second largest economic driver, it’s a sector ripe with opportunity for business expansion, job growth, and is a driving force in our.
2014 Update. Importance of states like Michigan Leadership – Chris Schmidt DTPC and David Milligan RTC. David Milligan – Budget Committee. Michigan.
Biofuels and Sustainability: An Industry Perspective Geoff Cooper Renewable Fuels Association October 27, 2009.
The Importance of FGD Gypsum To the CCP Industry By David Goss, Executive Director American Coal Ash Association OSU – EPRI Workshop St. Louis, September.
1 Sustainable Agriculture strategy Zurich 8 th June 2011 Neil la Croix Director of Supply Chains.
IRRIGATION Agriculture is the dominant economic activity in the Murray-Darling Basin. Further, the Basin is Australia's most important agricultural region,
Summary of economic modeling in BioEarth BioEarth Kick-off Meeting: April 11, 2011 Mike Brady, WSU Yong Chen, OSU Jon Yoder, WSU.
An assessment of the global land use change and food security effects of the use of agricultural residues for bioenergy production Edward Smeets, Andrzej.
Jillian Beaty Agriculture Education Instructor
FAO NAMA learning tool to support NAMA preparation in agriculture
Sustainability Overview Laura McCann, on behalf of Alison Goss Eng U.S. Department of Energy Office of Biomass Program February 23, 2010.
Environmental Science Chapter 15 Section 1
Prepared by the St. Louis Agribusiness Club January 2010 THE IMPORTANCE OF AGRIBUSINESS TO THE BI-STATE ECONOMY.
Arkansas Conservation Districts Training Program Power Point 2 Locally Led Planning.
Sustainable and productive farming systems Shared interests in Africa and Australia Brian Keating.
Aaron Troyer Marisa Zansler 2001 AAEA Case Study Competition Food & Resource Economics Dept.
Putting the Hopes and Fears of Climate Change Legislation in Perspective _________________________________________ Sustainable Agriculture: The Key to.
The objective of this presentation is to gain an understanding of sustainable agriculture and discuss the roadmap to move in this direction.  Agriculture.
Agribusiness Library LESSON L060002: THE SCOPE AND IMPORTANCE OF AGRIBUSINESS.
Mrs. Schaffner. the science and technology of producing and using plants for food, fuel, feed, fiber, and reclamation.
Domestic and Trade Impacts of U.S. Farm Policy Rob Robinson NAFTA Business Transformation Lead Syngenta Seeds, Inc.
Lesson 4 Identifying and Using Macroeconomics and Microeconomics.
The hydrological cycle of the western United States is expected to be significantly affected by climate change (IPCC-AR4 report). Rising temperature and.
Unit 1: Introduction to Agriculture. Objectives 1.1 Define terminology 1.2 Determine the impact of agriculture on Arkansas' economy. (rice, soybeans,
Kurt M. Guidry Gilbert Durbin Professor LSU AgCenter Department of Agricultural Economics and Agribusiness 2010 LSU AgCenter’s Outlook Conference Outlook.
Value of Seed Treatments And the Role of Industry August, 2013.
Agricultural Policy Effects on Land Allocation Allen M. Featherstone Terry L. Kastens Kansas State University.
An Evaluation of the Economic and Environmental Impacts of the Corn Grain Ethanol Industry on the Agricultural Sector Western Agricultural Economics Association.
Core 4 Grower Research: An Overview Conducted by Market Directions for the Conservation Technology Information Center.
What are the most efficient measures of mitigation and adaptation to produce more in a sustainable manner? Dr. Ada Ignaciuk, Agricultural Policy Analyst,
Supply Chain Management Sustainability Balanced Scorecard
THE SUSTAINABILITY OF U.S. SOYBEAN MEAL. U.S. CONSERVATION TILLAGE ACRES FOR THE LAST 30 YEARS Total acreage in 1982: 362,477,000 acres 17 percent was.
Community Food Security Rosie Kadwell, Public Health Dietitian.
Lesson L060002: The Scope and Importance of Agribusiness
“The Economics of Alternative Energy Sources and Globalization: The Road Ahead”, November15 – 17, 2009, Orlando, Florida Impacts of future energy price.
April 8, 2009Forestry and Agriculture GHG Modeling Forum Land Use Change in Agriculture: Yield Growth as a Potential Driver Scott Malcolm USDA/ERS.
© John Wiley & Sons, Inc.Exploitation, Conservation, Preservation 4e Cutter and Renwick 2003 Chapter 6: Agriculture and Food Production Food Production.
This is part of a series of general presentations that will be regularly updated by NCGA through Feel free to reuse this as needed, in your own PowerPoint.
25 years of Agrarian Reforms in Kyrgyzstan: Achievements and Issues Roman Mogilevskii, Kanat Tilekeyev, Nazgul Abdrazakova, Aida Bolotbekova, Saule Chalbasova,
FTO Communications Amy Roady Communications Director Illinois Soybean Association Funded by the Illinois soybean checkoff.
U.S. Soybean Sustainability Assurance Protocol Brent Babb.
Global Impact of Biotech Crops: economic & environmental effects Graham Brookes PG Economics Ltd UK ©PG Economics Ltd 2016.
Case Study: Food Security
The Future of Family Farms By Neil E. Harl Iowa State University
Connecticut Dairy Summit
Scientific Cooperation Exchange Program (SCEP)
Soil Fertility Research and Advisory Board
US Farming Market Outlook
Arkansas RIVER farms: investing in diversifying the region’s agricultural economy -- Economic and fiscal impact analysis Prepared by: Doug Jeavons.
FARMING The Changing Primary Industry.
Climate Change and Agriculture
NASCA 2018 Annual Meeting Update Doug Thomas, Minnesota.
Presentation by Bill Hohenstein
Cool Farms Tool – Crop GHG Calculator (CSAb)
Presentation transcript:

Field to Market The Keystone Alliance for Sustainable Agriculture General Background

What is Field to Market? A collaborative stakeholder group of producers, agribusinesses, food and retail companies, and conservation organizations Working together to develop a supply-chain system for agricultural sustainability Developing outcomes-based metrics Measuring the environmental and socioeconomic impacts of agriculture first in the United States

3 Steering Committee Members American Farm Bureau Federation American Farmland Trust American Soybean Association Bayer CropScience Bunge Cargill Conservation International Conservation Technology Information Center Cotton Incorporated CropLife America CropLife International Dairy Management Inc. Darden Restaurants DuPont Environmental Defense Fund General Mills Grocery Manufacturers of America John Deere Kellogg Company Land O’Lakes Manomet Center for Conservation Science Mars, Incorporated Monsanto Company National Association of Conservation Districts National Association of Wheat Growers National Corn Growers Association National Cotton Council of America National Potato Council Syngenta The Fertilizer Institute The Nature Conservancy United Soybean Board University of Arkansas Division of Agriculture University of Wisconsin-Madison College of Agricultural and Life Sciences USA Rice Federation World Resources Institute World Wildlife Fund

Field to Market Objectives To provide useful measurement tools and resources for growers and the supply chain that track and achieve continuous improvement against key outcomes. – First Steps: Environmental Indicators Report Grower Fieldprint Calculator

Criteria for Development – Outcomes based – Practice/ technology neutral – Transparent and credible science – Measures on-farm production outcomes within a grower’s control Data and Methods – Crop-specific focus on 4 commodities: corn, cotton, soybeans, and wheat – Land use, soil loss, water use, energy use, and climate impact (greenhouse gas emissions) – National scale indicators (US only) – Publicly available data (USDA ARMS, NRI, et al) Peer Review Process – Conducted in May 2008 with 17 reviewers Environmental Indicator Report Overview

Corn: Summary of Results Over the study period ( ), Productivity (yield per acre) has increased 41 percent. Land use increased 21 percent. Land use per bushel decreased 37 percent. Soil loss above T has decreased 43 percent per acre and 69 percent per bushel. Irrigation water use per acre decreased four percent. Water use per bushel has been variable, with an average 27 percent decrease over the study period. Energy use per acre increased three percent. Energy use per bushel decreased 37 percent. Greenhouse gas emissions per acre increased eight percent. Emissions per bushel decreased 30 percent. Total annual trends over this time period indicate increases in total annual energy use (28 percent), water use (17 percent), and greenhouse gas emissions (34 percent). Total annual soil loss has decreased 33 percent.

Cotton: Summary of Results Over the study period ( ), Productivity (yield per acre) increased 31 percent, with most improvement occurring in the second half of the study period. Land use has fluctuated over time, with an overall increase of 19 percent. Land use per pound produced has decreased 25 percent. Soil loss per acre decreased 11 percent while soil loss per pound decreased 34 percent. Irrigation water use per acre decreased 32 percent, while water use per incremental pound of cotton produced (above that expected without irrigation) decreased by 49 percent. Energy use per acre decreased 47 percent while energy use per pound decreased 66 percent. Greenhouse gas emissions per acre decreased nine percent while emissions per pound fluctuated, with more recent improvements resulting in a 33 percent average decrease over the study period. Total annual trends over the time period indicate soil loss and climate impact in 2007 are similar to the impact in 1987, with average trends over the study period remaining relatively flat. Total energy use decreased 45 percent and total water use decreased 26 percent.

8 Soybeans: Summary of Results Productivity (yield per acre) increased steadily by 29 percent. Land use increased in absolute terms and by 31 percent while land use efficiency per bushel improved by 26 percent. Soil loss per acre decreased roughly 31 percent while soil loss per bushel decreased 49 percent. These trends coincide with significant changes in farming practices in states that grow the bulk of all soybeans. Irrigation water use per acre has changed little over time and water use per bushel improved 20 percent. However, only four to seven percent of the crop utilizes supplemental water. Energy use per acre has decreased 48 percent while per bushel energy use decreased 65 percent. Soybeans have seen the most dramatic shift in inputs used, particularly herbicides and fuel for tillage, enabling per- unit energy requirements to decline substantially over time. Greenhouse gas emissions per acre declined 14 percent and emissions per bushel decreased 38 percent. Over the study period ( ) Total annual trends over this time period indicate soybean production’s total energy use decreased 29 percent, total soil loss decreased 11 percent, total irrigation water use increased 39 percent, and climate impact increased 15 percent.

Wheat: Summary of Results Over the study period ( ) Productivity (yield per acre) increased by 19 percent. Land use decreased 24 percent. Land use per bushel was variable, with an average overall decrease of 17 percent. Soil loss per acre and per bushel improved 39 percent and 50 percent, respectively, with most improvements over the first half of the study period. Irrigation water use per acre increased 17 percent while water use per bushel produced due to irrigation showed an average flat trend. Energy use per acre increased eight percent and energy use per bushel decreased nine percent. Greenhouse gas emissions per acre increased 34 percent and emissions per bushel increased 15 percent, with a larger increase in the latter half of the study period. Total annual trends over this time period indicate wheat’s total energy use and total irrigation water use were similar in 1987 and 2007, with average trends over the twenty year study period showing an 18 percent decrease in total energy use and an 11 percent decrease in total water use. Total soil loss has decreased 54 percent. Total climate impact has increased an average of five percent over the study period, with a more significant increase over the past decade.

10 Discussion and Conclusions Resource Indicators DO: – Describe progress or lack of progress for resource efficiency per unit of output, resource use or impact per acre, and total annual resource use or impact – Provide context for focusing on specific challenges and regions – Provide starting points for developing outcomes metrics at other scales, for a variety of technology choices, and a variety of crops Resource Indicators DO NOT: – Define a benchmark level for sustainability – Represent all dimensions of sustainability. We will continue to develop other environmental (including water quality and biodiversity), social, and economic indicators

What is the Fieldprint Calculator? A free, easy-to-use tool for growers to calculate individual results on natural resource management indicators – Allows growers to analyze how their choices impact natural resources, production levels, and operational efficiency – Helps growers continue to improve on already strong strides made in this area – All grower information is confidential

FieldPrint Calculator 12 Organized in five resource modules (land use, soil loss, irrigation water use, energy use, climate impact) Estimates the impact an input has on an output Based on growers’ answers, computes a spidergram – Shows the grower how he or she compares to others on a national or state level – The smaller the spidergram, the less the impact. In pilot stage

Next Steps Grower engagement in calculator and resources tool Continue work on water quality, biodiversity, and socio-economic indicators Develop protocols for sharing methodologies Explore supply chain mechanisms to support sustainability Outreach and partnering with other groups

14 Questions/Contact Information Sarah Stokes Alexander, Director, Sustainability and Leadership Programs – ; Julie Shapiro, Associate – ; Field to Market Website (includes Fieldprint Calculator and background information) –