Carbon Offsets – Agriculture & Forestry Neil Sampson June 25, 2004.

Slides:



Advertisements
Similar presentations
ACTIONS FOR CONTROLLING SHORT- LIVED CLIMATE FORCERS AGRICULTURAL EMISSIONS: 19 th -21 st SPTEMBER, 2012 Dr. Nicholas Iddi MEST.
Advertisements

Developing Offset Projects in a U.S. Pre-Compliance Market: Smart Investment or Unwise Policy Gamble Potential Carbon Markets & Utah Agriculture Utah.
Climate Smart Agriculture East Africa Regional Knowledge Sharing Meeting Thomas Cole June 11, 2012, Addis Ababa, Ethiopia.
Renewable Biomass Fuel As “Green Power” Alternative for Sugarcane Milling in the Philippines T.C. Mendoza, University of the Philippines at Los Baños,
Univ. of Alberta Climate Change Impacts on Canadian Agriculture R.F. Grant Dept. of Renewable Resources, Univ. of Alberta, Edmonton,Alberta.
ECONOMICS 415 CLICKER QUESTIONS Chapter 13 – Question Set #1.
Bioenergy: GHG balances ‘Carbon lean’, not ‘carbon neutral’
Forestry and Climate Change - issues and potential indicators For UNECE/FAO Team of Specialists, Edinburgh, May 2007 Simon Gillam, UK.
Carbon Sequestration on Agricultural Land in Wisconsin Christopher Kucharik Center for Sustainability and the Global Environment (SAGE)
Agro-Forestry  Reduces agric related GHGs- CO 2, N 2 O, CH 4  Potential for sequestering carbon.  Shading effects of agro- forestry trees can buffer.
1 Review What causes soul erosion
Opportunities to Increase Carbon Sequestration Through Forestry Richard A. Birdsey USDA Forest Service Global Change Research Program Senate Agriculture.
Ethanol Anthony Mirabile, Katelyn Snyder, John St. Fleur
Climate Change. Climate change: Changes in many climatic factors. Global warming: The rise in global temperatures.
Switchgrass to Ethanol Production John Pangle April 12, 2007.
Managing for Forest Carbon Storage. Inter-governmental Panel on Climate Change.
Bio-economics of Climate Change Payments for Carbon Sequestration in Michigan This poster shows how strategies to mitigate global warming can also help.
Climate Change and Forestry Allan L. Carroll, Ph.D. Natural Resources Canada Canadian Forest Service Pacific Forestry Centre Victoria, Canada Senior Research.
Anthropogenic Influences on the Global Carbon Cycle and its Implications for the Future Abstract Carbon makes up approximately 50% of the dry weight of.
Presented by Dean Current, PhD Center for Integrated Natural Resources and Agricultural Management (CINRAM) Department of Forest Resources University of.
Carbon and forest management Robert Matthews Forest Research Biometrics, Surveys and Statistics Division Alice Holt Research Station, Farnham.
Most Common Conservation Practices Forestry Illinois.
Bridging the gaps between AR and ARD Challenges and Opportunities Alain Vidal AKIS-ARCH Workshop, Brussels, May 2014 Photo: A. Vidal.
Residue Biomass Removal and Potential Impact on Production and Environmental Quality Mahdi Al-Kaisi, Associate Professor Jose Guzman, Research Assistant.
Integrating Forages into Multi-Functional Landscapes: Enhanced Soil Health and Ecosystem Service Opportunities Douglas L. Karlen USDA-ARS Presented at.
HUMAN IMPACT ON LAND BY: MR. MERINGOLO. WHY IS LAND SO IMPORTANT? SUPPLIES A SOLID SURFACE FOR BUILDINGS AND ROADS THE SOIL IN LAND PROVIDES NUTRIENTS.
Global Emissions from the Agriculture and Forest Sectors: Status and Trends Indu K Murthy Indian Institute of Science.
Climate Change Mitigation Policy for Agriculture in Canada: Horizontal Policy Integration June 19, 2004 UNFCCC Workshop, Bonn, Germany Dr. Robert J. MacGregor.
Pennsylvania Biomass Energy Opportunities. Co-firing Biomass with Coal The opportunity to burn biomass with coal to produce electricity is better in PA.
The stock is the present accumulated quantity of natural capital. It is a supply accumulated for future use; a store. The natural income is any sustainable.
The Rotational Benefits of Forages: Environment Provide wildlife habitat Reduce soil erosion Reduce pesticide use Reduce energy use Reduce greenhouse gas.
APES INTRODUCTION TO AP ENVIRONMENTAL. INTRODUCTION TO ENVIRONMENTAL SCIENCE Environment External conditions that affect living organisms Ecology Study.
Wood as energetic biomass – threats and opportunities Zdeněk Poštulka Hnutí DUHA – FoE ČR.
Putting the Hopes and Fears of Climate Change Legislation in Perspective _________________________________________ Sustainable Agriculture: The Key to.
NexSteppe Vision Be a leading provider of scalable, reliable and sustainable feedstock solutions for the biofuels, biopower and biobased product industries.
SOIL CONDITION INDEX – (SCI) AS AN INDICATOR OF THE SOIL ORGANIC MATTER DYNAMICS AT THE FARM BUTMIR NEAR SARAJEVO Prof. Dr. Hamid Čustović Tvica Mirza.
Earth’s Changing Environment Lecture 13 Global Warming.
ABDULAZEEZ MUHAMMAD ITEC211 BIOMASS. CONTENT BIOMASS WHERE DOES IT COME FROM ? TYPES OF BENEFICIAL BIOMASS METHODS OF CONVERSION ADVANTAGES AND.
Carbon Sequestration in Farm and Forest Ecosystems Sarah Hines April 2009
Agriculture’s Role in Climate Change Mitigation July 18, 2007 (revised) Daniel A. Lashof, Ph.D. Science Director Climate Center Natural Resources Defense.
Climate Change and Energy Impacts on Water and Food Scarcity Mark W. Rosegrant Director Environment and Production Technology Division High-level Panel.
Sustainable Agriculture UNIT 1 – SUSTAINABLE DEVELOPMENT
Presented at: Saskatchewan Agriculture and Food Agriculture and Greenhouse Gas/Climate Change Workshop Saskatoon December 11, 2000 Llewellyn Matthews and.
Adaptation to CC in African Forests UNDP Accra. Forest Model Climate Outcome Emission Scenario Timber Response Carbon Response Economic Outcome Ecosystem.
Oregon Ag Carbon Work Group. Introduction Agriculture represents a small percentage of greenhouse gas emissions Ag likely won’t be regulated under a greenhouse.
Agricultural Biomass Resources, Opportunities, and Constraints Presentation to the Western Governors’ Association Clean and Diversified Energy Advisory.
Madhu Khanna Department of Agricultural and Consumer Economics
MonthDayLectureActivityChap. Nov.21Ecosystems IIServices56 26Global C cycle56 Dec.3Thinking ecologically I 5Thinking ecologically II Eco. literacy 10Exam.
Chapter 9 The Production and Distribution of Food.
Sequestration: What Elements Are Needed to Implement It, And Are They in Place? October 13, 2004 Forestry and Agriculture Greenhouse Gas Modeling Forum.
1 Protection of soil carbon content as a climate change mitigation tool Peter Wehrheim Head of Unit, DG CLIMA Unit A2: Climate finance and deforestation.
What is a renewable energy? -Resource that can be replenished rapidly through natural processes as long as it is not used up faster than it is replaced.
Michigan Commission of Agriculture September 16, 2009 Climate Change and the Farm.
Christine Watson November 2015
Biomass Energy Biomass is organic material made from plants and animals (microorganisms). Biomass contains stored energy from the sun.
MonthDayLectureActivityChap. Nov.21Ecosystems IIServices56 26Global C cycle56 Dec.3Thinking ecologically I 5Thinking ecologically II Eco. literacy 10Exam.
Agroforestry Combines agriculture and forestry technologies to create more integrated, diverse, productive, profitable, healthy and sustainable land-use.
Environmental Problems With Food Production Ch. 12.
Food – a resource. Why is food important? 1)Source of energy 2)Source of materials for building new cells & structures **malnourishment can lead to other.
A POLICYMAKER’S GUIDE TO THE SUSTAINABLE INTENSIFICATION OF SMALLHOLDER CROP PRODUCTION.
Mitigation The potential to use protected areas in carbon storage and capture.
HUMAN IMPACT on the BIOSPHERE Chapter 6-2 Renewable and Non-renewable Resources.
Keystone Agricultural Producers of Manitoba Carbon pricing: Making it work for Manitoba farmers Presented by: James Battershill, General Manager Sean Goertzen,
Management and Life Cycle Assessment of Bioenergy Crop Production
Impacts of Climate Change on Agriculture
regenerate RENEWABLE ________________ RESOURCES
Bioenergy feedstocks at the Kellogg Biological Station
Getting from here to there: protecting and promoting ecosystem services during the conversion of forests to fields in New England Alexandra Contosta1,
Climate and Terrestrial Biodiversity
Massachusetts Forest Biomass Sustainability and Carbon Policy Study
Presentation transcript:

Carbon Offsets – Agriculture & Forestry Neil Sampson June 25, 2004

Energy Crops Riparian Forest Buffers Cropland to Forest Cropland to Grassland Windbreaks & Shelterbelts 1.3 to 5+ 1 to 5 (?) 0.5 to to to 0.7 Improved Forest Management Conservation Tillage Improved Crop Systems 0.1 to to to 0.12 Drainage, Wetland mgt Using Forest Products Extending Product Life ??? Potential Carbon Effect (tC/ac/yr) Conservation Practice Carbon – Offset Opportunities

Quantifying “Credits” Default/Estimate –Exchange adopts default from research (CCX) Change from Base Year –Measure at Year 0; Re-measure at Year X (CCX) Change from Business as Usual (BAU) –Measure at Year 0 –Model BAU change for life of project. –Measure at Year X and “true up” against model –Credits = Difference over BAU as indicated by model

Conservation & Carbon Agriculture Agro-Forestry Forestry

Agricultural Conservation Improved Cropping Systems Conservation Tillage Cropland to Grassland Drainage, Wetland Management

Improved Cropping Systems Higher crop yields (healthier plants, roots) Nutritional levels (plant growth, soil fauna) Residue management (incorporate in soil) Crop rotations (diversity, balance) Reduced soil erosion Range of gain – 0.04 to 0.12 tC/Ac/yr

Conservation Tillage Reduced soil aeration Cooler soil (shade) – slows decomposition Increased residue input Reduced soil erosion Range of potential gain – 0.1 to 0.25 tC/Ac/yr

Cropland to Grassland Could be either Conservation Reserve Program or Conservation Buffer Eliminate cultivation, aeration Increase root mass (turnover) Range of potential gain – 0.3 to 0.7 tC/Ac/yr

Drainage, Wetland Management Saturated wetlands produce methane – a greenhouse gas 21 times as damaging to climate as carbon dioxide. Draining wetland soils may reduce methane, increase plant growth. It increases aeration, soil temperature, and decomposition of OM. Cultivating organic soils increases decomposition and emissions significantly. Range of potential impact – could be either positive or negative.

Agroforestry & Energy Windbreaks and Shelterbelts Energy Crops Riparian Forest Buffers

Windbreaks & Shelterbelts Add woody biomass; increase soil carbon Reduce soil erosion Reduce energy use (livestock facilities, farm fuels, homes) Lack of good growth and yield data on line- grown trees and non-commercial species Range of potential gain – 0.25 to 0.7 tC/Ac/yr

Energy Crops 2 types of carbon benefit –Sequestration – increase soil carbon, woody roots –Substitution -- replace net increase in atmospheric CO 2 (fossil fuels) with a recycling process. Grass (switchgrass) or Trees (hybrid poplar; willow) Range of potential gain – 0.25 to 1 tC/Ac/yr sequestration plus 5-10 tC/ac/yr in substitution

Riparian Forest Buffers Protect water quality; stream integrity High growth sites; moisture, nutrients Soil C may not change much (already high) Growth and Yield models for many species are lacking in the riparian situations. Range of potential gain – 1 to 5 tC/ac/yr

Forest Conservation Cropland or Pasture to Forest Improved Forest Management Protect Forests from Conversion Using Forest Products Extending Product Life

Crop or Pasture to Forest Marginal lands adapted to forest If soil is depleted, should recover in years. Forests store wood; produce wood products that may stay intact for much longer. Range of potential gain – 0.5 to 5 tC/Ac/yr

Improved Forest Management Longer rotations Fertilizer, competition control Full stocking; Adapt species to soil types Increase standing biomass on the land Larger wood for longer-lived products Range of potential gain – 0.1 to 1.4 tC/Ac/yr

Using Forest Products Wood is renewable; proper use does not degrade the environment Substitutes such as steel, aluminum, and concrete use much more energy to produce and use.

Extending Product Life Wood coatings, preservatives Recycling

Energy Crops Riparian Forest Buffers Cropland to Forest Cropland to Grassland Windbreaks & Shelterbelts 1.3 to 5+ 1 to 5 (?) 0.5 to to to 0.7 Improved Forest Management Conservation Tillage Improved Crop Systems 0.1 to to to 0.12 Drainage, Wetland mgt Using Forest Products Extending Product Life ??? Potential Carbon Effect (tC/ac/yr) Conservation Practice Carbon – Offset Opportunities

The Sampson Group, Inc. Alexandria, Virginia