Carbon Farming Increasing Fertility & Water Holding Capacity Providing Solutions for Climate Change
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Carbon Dioxide Removal Policy in the Making: Assessing Developments in 9 OECD Cases
POLICY AND PRACTICE REVIEWS published: 04 March 2021 doi: 10.3389/fclim.2021.638805 Carbon Dioxide Removal Policy in the Making: Assessing Developments in 9 OECD Cases Felix Schenuit 1,2*, Rebecca Colvin 3, Mathias Fridahl 4, Barry McMullin 5, Andy Reisinger 6, Daniel L. Sanchez 7, Stephen M. Smith 8, Asbjørn Torvanger 9, Anita Wreford 10 and Oliver Geden 2 1 Center for Sustainable Society Research, University of Hamburg, Hamburg, Germany, 2 German Institute for International and Security Affairs (SWP), Berlin, Germany, 3 Crawford School of Public Policy, Australian National University, Canberra, ACT, Australia, 4 Department of Thematic Studies, Environmental Change, Centre for Climate Science and Policy Research, Linköping University, Linköping, Sweden, 5 Dublin City University, Dublin, Ireland, 6 Ministry for the Environment, Wellington, New Zealand, 7 Department of Environmental Science, Policy, and Management (ESPM), University of California, Berkeley, Berkeley, CA, United States, 8 Smith School of Enterprise and the Environment, Oxford University, Oxford, United Kingdom, 9 Center for International Climate Research (CICERO), Oslo, Norway, 10 Agribusiness and Economics Research Unit (AERU), Lincoln University, Christchurch, New Zealand Edited by: William C. Burns, Since the adoption of the Paris Agreement in 2015, spurred by the 2018 IPCC Special American University, United States Report on Global Warming of 1.5◦C, net zero emission targets have emerged as a Reviewed by: new organizing principle of climate policy. In this context, climate policymakers and Phillip Williamson, University of East Anglia, stakeholders have been shifting their attention to carbon dioxide removal (CDR) as United Kingdom an inevitable component of net zero targets. The importance of CDR would increase Charithea Charalambous, Heriot-Watt University, further if countries and other entities set net-negative emissions targets. -
Pacific Biochar What Is Biochar?
Soil Health & Carbon Farming Charlie McIntosh, Pacific Biochar What is Biochar? Biochar: biomass charcoal when used or found in soils Biochar + Soil Health SOIL ORGANIC MATTER ! Biochar is a natural component of soil organic matter ! Seasonal fires deposit biochar in soils where it accumulates over time ! People have used biochar to improve soils for millenia (ex. Terra Preta soils of the Amazon Basin) ! Fertile soils around the world often contain high levels of biochar ~30-50% of SOM Photo courtesy of Julie Major and Bruno Glaser Biochar forms a portion of the “Stabilized Organic Matter” pool in soils Biochar + Soil Health SOIL BIOLOGY ! Biochar provides an ideal micro- habitat for soil organisms ! Porous surfaces retain air, water and nutrients available for microorganisms and root hairs ! Studies consistently demonstrate enhanced biological activity in soils & composting using biochar Photo showing microstructure of biochar particle and Photo showing the organic coating formed on biochar fungal hyphae extending from spore, courtesy of Ogawa surfaces and pores, courtesy of Yoshizawa Biochar + Soil Health WATER & NUTRIENT CONSERVATION ! Biochar acts like a sponge ! Micropores retain moisture while macropores allow drainage ! Improves plant available water in sandy and heavy clay soils ! Biochar acts like a filter ! Reduces leaching & volatilization of nutrients, especially nitrogen Biochar + Compost COMPOST QUALITY ! Biochar-amended compost improves compost quality and maturity while the biochar is improved by microbe colonization and -
Drought and Ecosystem Carbon Cycling
Agricultural and Forest Meteorology 151 (2011) 765–773 Contents lists available at ScienceDirect Agricultural and Forest Meteorology journal homepage: www.elsevier.com/locate/agrformet Review Drought and ecosystem carbon cycling M.K. van der Molen a,b,∗, A.J. Dolman a, P. Ciais c, T. Eglin c, N. Gobron d, B.E. Law e, P. Meir f, W. Peters b, O.L. Phillips g, M. Reichstein h, T. Chen a, S.C. Dekker i, M. Doubková j, M.A. Friedl k, M. Jung h, B.J.J.M. van den Hurk l, R.A.M. de Jeu a, B. Kruijt m, T. Ohta n, K.T. Rebel i, S. Plummer o, S.I. Seneviratne p, S. Sitch g, A.J. Teuling p,r, G.R. van der Werf a, G. Wang a a Department of Hydrology and Geo-Environmental Sciences, Faculty of Earth and Life Sciences, VU-University Amsterdam, De Boelelaan 1085, 1081 HV Amsterdam, The Netherlands b Meteorology and Air Quality Group, Wageningen University and Research Centre, P.O. box 47, 6700 AA Wageningen, The Netherlands c LSCE CEA-CNRS-UVSQ, Orme des Merisiers, F-91191 Gif-sur-Yvette, France d Institute for Environment and Sustainability, EC Joint Research Centre, TP 272, 2749 via E. Fermi, I-21027 Ispra, VA, Italy e College of Forestry, Oregon State University, Corvallis, OR 97331-5752 USA f School of Geosciences, University of Edinburgh, EH8 9XP Edinburgh, UK g School of Geography, University of Leeds, Leeds LS2 9JT, UK h Max Planck Institute for Biogeochemistry, PO Box 100164, D-07701 Jena, Germany i Department of Environmental Sciences, Copernicus Institute of Sustainable Development, Utrecht University, PO Box 80115, 3508 TC Utrecht, The Netherlands j Institute of Photogrammetry and Remote Sensing, Vienna University of Technology, Gusshausstraße 27-29, 1040 Vienna, Austria k Geography and Environment, Boston University, 675 Commonwealth Avenue, Boston, MA 02215, USA l Department of Global Climate, Royal Netherlands Meteorological Institute, P.O. -
Agricultural Soil Carbon Credits: Making Sense of Protocols for Carbon Sequestration and Net Greenhouse Gas Removals
Agricultural Soil Carbon Credits: Making sense of protocols for carbon sequestration and net greenhouse gas removals NATURAL CLIMATE SOLUTIONS About this report This synthesis is for federal and state We contacted each carbon registry and policymakers looking to shape public marketplace to ensure that details investments in climate mitigation presented in this report and through agricultural soil carbon credits, accompanying appendix are accurate. protocol developers, project developers This report does not address carbon and aggregators, buyers of credits and accounting outside of published others interested in learning about the protocols meant to generate verified landscape of soil carbon and net carbon credits. greenhouse gas measurement, reporting While not a focus of the report, we and verification protocols. We use the remain concerned that any end-use of term MRV broadly to encompass the carbon credits as an offset, without range of quantification activities, robust local pollution regulations, will structural considerations and perpetuate the historic and ongoing requirements intended to ensure the negative impacts of carbon trading on integrity of quantified credits. disadvantaged communities and Black, This report is based on careful review Indigenous and other communities of and synthesis of publicly available soil color. Carbon markets have enormous organic carbon MRV protocols published potential to incentivize and reward by nonprofit carbon registries and by climate progress, but markets must be private carbon crediting marketplaces. paired with a strong regulatory backing. Acknowledgements This report was supported through a gift Conservation Cropping Protocol; Miguel to Environmental Defense Fund from the Taboada who provided feedback on the High Meadows Foundation for post- FAO GSOC protocol; Radhika Moolgavkar doctoral fellowships and through the at Nori; Robin Rather, Jim Blackburn, Bezos Earth Fund. -
REGENERATIVE AGRICULTURE and the SOIL CARBON SOLUTION SEPTEMBER 2020
REGENERATIVE AGRICULTURE and the SOIL CARBON SOLUTION SEPTEMBER 2020 AUTHORED BY: Jeff Moyer, Andrew Smith, PhD, Yichao Rui, PhD, Jennifer Hayden, PhD REGENERATIVE AGRICULTURE IS A WIN-WIN-WIN CLIMATE SOLUTION that is ready for widescale implementation now. WHAT ARE WE WAITING FOR? Table of Contents 3 Executive Summary 5 Introduction 9 A Potent Corrective 11 Regenerative Principles for Soil Health and Carbon Sequestration 13 Biodiversity Below Ground 17 Biodiversity Above Ground 25 Locking Carbon Underground 26 The Question of Yields 28 Taking Action ACKNOWLEDGMENTS 30 Soil Health for a Livable Future Many thanks to the Paloma Blanca Foundation and Tom and Terry Newmark, owners of Finca Luna Nueva Lodge and regenerative farm in 31 References Costa Rica, for providing funding for this paper. Tom is also the co-founder and chairman of The Carbon Underground. Thank you to Roland Bunch, Francesca Cotrufo, PhD, David Johnson, PhD, Chellie Pingree, and Richard Teague, PhD for providing interviews to help inform the paper. EXECUTIVE SUMMARY The environmental impacts of agricultural practices This introduction is co-authored by representatives of two The way we manage agricultural land 140 billion new tons of CO2 contamination to the blanket of and translocation of carbon from terrestrial pools to formative organizations in the regenerative movement. matters. It matters to people, it matters to greenhouse gases already overheating our planet. There is atmospheric pools can be seen and felt across a broad This white paper reflects the Rodale Institute’s unique our society, and it matters to the climate. no quarreling with this simple but deadly math: the data are unassailable. -
Carbon Farming Schemes in Europe - Roundtable Background Document
EUROPEAN COMMISSION DIRECTORATE-GENERAL CLIMATE ACTION Directorate C – Climate strategy, governance and emissions from non-trading sectors CLIMA.C.3 – Land Use and Finance for Innovation Carbon Farming Schemes in Europe - Roundtable Background document Contents 1. Introduction ................................................................................................................................................. 2 2. Carbon Farming Study ................................................................................................................................. 2 3. The aim of the Roundtable .......................................................................................................................... 3 4. EU result-based carbon farming examples: classification of existing schemes .......................................... 3 5. Guidance for the development of result- based carbon farming schemes in the EU ................................. 5 6. Questions for discussion at the Roundtable ............................................................................................... 6 Annex I: Description of existing European carbon farming schemes ................................................................. 8 Annex II: Carbon farming scheme options ........................................................................................................ 12 Annex III: Speaker bios ..................................................................................................................................... -
Forestry As a Natural Climate Solution: the Positive Outcomes of Negative Carbon Emissions
PNW Pacific Northwest Research Station INSIDE Tracking Carbon Through Forests and Streams . 2 Mapping Carbon in Soil. .3 Alaska Land Carbon Project . .4 What’s Next in Carbon Cycle Research . 4 FINDINGS issue two hundred twenty-five / march 2020 “Science affects the way we think together.” Lewis Thomas Forestry as a Natural Climate Solution: The Positive Outcomes of Negative Carbon Emissions IN SUMMARY Forests are considered a natural solu- tion for mitigating climate change David D’A more because they absorb and store atmos- pheric carbon. With Alaska boasting 129 million acres of forest, this state can play a crucial role as a carbon sink for the United States. Until recently, the vol- ume of carbon stored in Alaska’s forests was unknown, as was their future car- bon sequestration capacity. In 2007, Congress passed the Energy Independence and Security Act that directed the Department of the Inte- rior to assess the stock and flow of carbon in all the lands and waters of the United States. In 2012, a team com- posed of researchers with the U.S. Geological Survey, U.S. Forest Ser- vice, and the University of Alaska assessed how much carbon Alaska’s An unthinned, even-aged stand in southeast Alaska. New research on carbon sequestration in the region’s coastal temperate rainforests, and how this may change over the next 80 years, is helping land managers forests can sequester. evaluate tradeoffs among management options. The researchers concluded that ecosys- tems of Alaska could be a substantial “Stones have been known to move sunlight, water, and atmospheric carbon diox- carbon sink. -
Climate-Smart Agriculture: Biochar Amendments
Climate-Smart Agriculture Fact Sheet Series: On Biochar Amendments 4 Climate-Smart Agriculture: Biochar Amendments This fact sheet is the final installment of a four-part climate-smart agriculture series exploring the relationship between carbon farming, soil health, and soil amendments on CA croplands and rangelands. This fact sheet focuses on biochar amendments and previous fact sheets address the benefits of compost and pulverized rock. The series is intended for members of the technical assistance community who advise CA growers on climate-smart agriculture. What is biochar? There is growing excitement about biochar use as an agricultural amendment to improve soil health and sequester carbon. Biochar is a carbon-rich material, similar to charcoal, made under low oxygen conditions with high temperature conversion of biomass feedstocks such as wood, nutshells, hulls, or manure. In addition to promoting soil carbon storage, biochar may provide benefits to growers such as improved yields and enhanced water and nutrient use efficiency.1-5 The potential benefits from biochar are a function of the feedstock and production method, soil type, climate, and cropping system. Although biochar amendments may provide benefits, there are potential drawbacks and Fields amended with biochar. Image: Maya Almaraz, 2019 growers may need assistance in making informed decisions on how and when to apply biochar to their fields. How does biochar fit into the big picture in California? Development of guidelines for biochar use may be a pathway to reduce overstocked forests of dead and down timber, stimulating forest restoration work in California. Biochar can be made from small diameter trees and woody biomass that has low value as timber or other wood products. -
Carbon Cycling and Biosequestration Integrating Biology and Climate Through Systems Science March 2008 Workshop Report
Carbon Cycling and Biosequestration Integrating Biology and Climate through Systems Science March 2008 Workshop Report http://genomicsgtl.energy.gov/carboncycle/ ne of the most daunting challenges facing science in processes that drive the global carbon cycle, (2) achieve greater the 21st Century is to predict how Earth’s ecosystems integration of experimental biology and biogeochemical mod- will respond to global climate change. The global eling approaches, (3) assess the viability of potential carbon Ocarbon cycle plays a central role in regulating atmospheric biosequestration strategies, and (4) develop novel experimental carbon dioxide (CO2) levels and thus Earth’s climate, but our approaches to validate climate model predictions. basic understanding of the myriad tightly interlinked biologi- cal processes that drive the global carbon cycle remains lim- A Science Strategy for the Future ited. Whether terrestrial and ocean ecosystems will capture, Understanding and predicting processes of the global carbon store, or release carbon is highly dependent on how changing cycle will require bold new research approaches aimed at linking climate conditions affect processes performed by the organ- global-scale climate phenomena; biogeochemical processes of isms that form Earth’s biosphere. Advancing our knowledge ecosystems; and functional activities encoded in the genomes of of biological components of the global carbon cycle is crucial microbes, plants, and biological communities. This goal presents to predicting potential climate change impacts, assessing the a formidable challenge, but emerging systems biology research viability of climate change adaptation and mitigation strate- approaches provide new opportunities to bridge the knowledge gies, and informing relevant policy decisions. gap between molecular- and global-scale phenomena. -
The Carbon Cycle
The Carbon Cycle Overview of the Carbon Cycle The movement of carbon from one area to another is the basis for the carbon cycle. Carbon is important for all life on Earth. All living things are made up of carbon. Carbon is produced by both natural and human-made (anthropogenic) sources. Carbon Cycle Page 1 Nature’s Carbon Sources Carbon is found in the Carbon is found in the lithosphere Carbon is found in the Carbon is found in the atmosphere mostly as carbon in the form of carbonate rocks. biosphere stored in plants and hydrosphere dissolved in ocean dioxide. Animal and plant Carbonate rocks came from trees. Plants use carbon dioxide water and lakes. respiration place carbon into ancient marine plankton that sunk from the atmosphere to make the atmosphere. When you to the bottom of the ocean the building blocks of food Carbon is used by many exhale, you are placing carbon hundreds of millions of years ago during photosynthesis. organisms to produce shells. dioxide into the atmosphere. that were then exposed to heat Marine plants use cabon for and pressure. photosynthesis. The organic matter that is produced Carbon is also found in fossil fuels, becomes food in the aquatic such as petroleum (crude oil), coal, ecosystem. and natural gas. Carbon is also found in soil from dead and decaying animals and animal waste. Carbon Cycle Page 2 Natural Carbon Releases into the Atmosphere Carbon is released into the atmosphere from both natural and man-made causes. Here are examples to how nature places carbon into the atmosphere. -
Carbon Farming Brochure
Carbon Farming Increasing fertility & water holding capacity Providing solutions for climate change The Carbon Cycle Carbon constantly cycles through five pools on planet earth. Light energy coming from our sun functions as the fuel for the carbon cycle. The carbon cycle is a critical natural process that moves carbon through our atmosphere, biosphere, pedosphere, lithosphere, and oceans. Human activity has tipped the balance of the carbon cycle through extracting enormous quantities of deeply sequestered fossil carbon as fossil fuels. These dense forms of carbon, when burned, release massive amounts of energy and carbon dioxide. More carbon dioxide is now being released than the earth’s land-based plant life and oceans can naturally reabsorb. The excess carbon dioxide has formed a blanket in our atmosphere—trapping the sun’s heat and changing our climate, as seen in shifts in our earth’s jet stream, ocean currents, and air temperature. Rainfall patterns are changing and glaciers (water storage for many communities) are melting quickly. We have an opportunity to restore balance within the carbon cycle in a way that will ameliorate climate change, build resilience to drought and increase our agricultural productivity naturally. This document is an introduction to a natural solution called Carbon Farming. CARBON CYCLE INSTITUTE Why Carbon Farming? Implications for Our Climate Land management is the second largest contributor to carbon dioxide emissions on According to Marin Carbon Project research, sequestration of just one metric ton per planet earth. Agriculture is the ONE sector that has the ability to transform from a net hectare on half the rangeland area in California would offset 42 million metric tons of emitter of CO2 to a net sequesterer of CO2—there is no other human managed realm CO2e, an amount equivalent to the annual green house gas emissions from energy use with this potential. -
Permafrost Soils and Carbon Cycling
SOIL, 1, 147–171, 2015 www.soil-journal.net/1/147/2015/ doi:10.5194/soil-1-147-2015 SOIL © Author(s) 2015. CC Attribution 3.0 License. Permafrost soils and carbon cycling C. L. Ping1, J. D. Jastrow2, M. T. Jorgenson3, G. J. Michaelson1, and Y. L. Shur4 1Agricultural and Forestry Experiment Station, Palmer Research Center, University of Alaska Fairbanks, 1509 South Georgeson Road, Palmer, AK 99645, USA 2Biosciences Division, Argonne National Laboratory, Argonne, IL 60439, USA 3Alaska Ecoscience, Fairbanks, AK 99775, USA 4Department of Civil and Environmental Engineering, University of Alaska Fairbanks, Fairbanks, AK 99775, USA Correspondence to: C. L. Ping ([email protected]) Received: 4 October 2014 – Published in SOIL Discuss.: 30 October 2014 Revised: – – Accepted: 24 December 2014 – Published: 5 February 2015 Abstract. Knowledge of soils in the permafrost region has advanced immensely in recent decades, despite the remoteness and inaccessibility of most of the region and the sampling limitations posed by the severe environ- ment. These efforts significantly increased estimates of the amount of organic carbon stored in permafrost-region soils and improved understanding of how pedogenic processes unique to permafrost environments built enor- mous organic carbon stocks during the Quaternary. This knowledge has also called attention to the importance of permafrost-affected soils to the global carbon cycle and the potential vulnerability of the region’s soil or- ganic carbon (SOC) stocks to changing climatic conditions. In this review, we briefly introduce the permafrost characteristics, ice structures, and cryopedogenic processes that shape the development of permafrost-affected soils, and discuss their effects on soil structures and on organic matter distributions within the soil profile.