“Blue” Carbon a Revised Guide to Supporting Coastal Wetland Programs and Projects Using Climate Finance and Other Financial Mechanisms
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Coastal Blue Carbon
COASTAL BLUE CARBON methods for assessing carbon stocks and emissions factors in mangroves, tidal salt marshes, and seagrass meadows Coordinators of the International Blue Carbon Initiative CONSERVATION INTERNATIONAL Conservation International (CI) builds upon a strong foundation of science, partnership and field demonstration, CI empowers societies to responsibly and sustainably care for nature, our global biodiversity, for the long term well-being of people. For more information, visit www.conservation.org IOC-UNESCO UNESCO’s Intergovernmental Oceanographic Commission (IOC) promotes international cooperation and coordinates programs in marine research, services, observation systems, hazard mitigation, and capacity development in order to understand and effectively manage the resources of the ocean and coastal areas. For more information, visit www.ioc.unesco.org IUCN International Union for Conservation of Nature (IUCN) helps the world find pragmatic solutions to our most pressing environment and development challenges. IUCN’s work focuses on valuing and conserving nature, ensuring effective and equitable governance of its use, and deploying nature-based solutions to global challenges in climate, food and development. For more information, visit www.iucn.org FRONT COVER: © Keith A. EllenbOgen; bACK COVER: © Trond Larsen, CI COASTAL BLUE CARBON methods for assessing carbon stocks and emissions factors in mangroves, tidal salt marshes, and seagrass meadows EDITORS Jennifer howard – Conservation International Sarah hoyt – duke University Kirsten Isensee – Intergovernmental Oceanographic Commission of UNESCO Emily Pidgeon – Conservation International Maciej Telszewski – Institute of Oceanology of Polish Academy of Sciences LEAD AUTHORS James Fourqurean – Florida International University beverly Johnson – bates College J. boone Kauffman – Oregon State University hilary Kennedy – University of bangor Catherine lovelock – University of Queensland J. -
Blue Carbon Fact Sheet
Blue is the New Green carbon storage in coastal wetlands Benefits of a Healthy Coast Most of us who live or vacation on Cape Cod are attracted by the beauty, recreational, and economic opportunities of the coast. However, coastal communities like ours are among the most vulnerable to threats such as sea level rise, intense storms, erosion, and flooding. WETLANDS are one line of defense against these threats. Characterized by plants adapted to frequent flooding, they are a widespread feature of our landscape. In fact, wetlands make up 12-16% of the land on Cape Cod – an area about the size of Nantucket Island. In addition to comprising a central and important part of our landscape, wetlands provide a number of ECOSYSTEM SERVICES – essential benefits to our economy and culture. These services include: • Erosion control • Flood protection • Clean water • Healthy fisheries • Biodiversity protection • Aesthetics and recreation Wetlands on Waquoit Bay, MA. • Carbon sequestration (storage) Carbon Storage Of these many benefits, CARBON SEQUESTRATION, or storage, is getting increased attention as a way to reduce excess carbon dioxide (CO2) and other greenhouse gases in our atmosphere from the burning of fossil fuels. These gases are leading to negative impacts worldwide on climate, food production, and human health and livelihoods. To counteract this trend, people are looking not only at reducing greenhouse gas emissions, but also at protecting and enhancing ecosystems that naturally sequester them. BIOLOGICAL CARBON SEQUESTRATION is a process in which carbon is captured through photosynthesis by trees, plants, or other organisms, and stored in soils or other organic matter such as leaves and roots. -
BLUE CARBON • Blue Carbon Is the Carbon Stored in Coastal and Marine Ecosystems
NOVEMBER 2017 BLUE CARBON • Blue carbon is the carbon stored in coastal and marine ecosystems. • Coastal ecosystems such as mangroves, tidal marshes and seagrass meadows sequester and store more carbon per unit area than terrestrial forests and are now being recognised for their role in mitigating climate change. • These ecosystems also provide essential benefits for climate change adaptation, including coastal protection and food security for many coastal communities. • However, if the ecosystems are degraded or damaged, their carbon sink capacity is lost or adversely affected, and the carbon stored is released, resulting in emissions of carbon dioxide (CO2) that contribute to climate change. • Dedicated conservation efforts can ensure that coastal ecosystems continue to play their role as long-term carbon sinks. What is the issue? demonstrate how nature can be used to enhance climate change mitigation strategies and therefore The coastal ecosystems of mangroves, tidal offer opportunities for countries to achieve their marshes and seagrass meadows contain large stores emissions reduction targets and Nationally of carbon deposited by vegetation and various Determined Contributions (NDCs) under the Paris natural processes over centuries. These ecosystems Agreement. sequester and store more carbon – often referred to as ‘blue carbon’ – per unit area than terrestrial Additionally, these coastal ecosystems provide forests. The ability of these vegetated ecosystems to numerous benefits and services that are essential for remove carbon dioxide (CO2) from the atmosphere climate change adaptation, including coastal makes them significant net carbon sinks, and they protection and food security for many communities are now being recognised for their role in mitigating globally. climate change. -
Blue Carbon Sequestration Along California's Coast
Briefing heldDecember 2020 CCST Expert Briefing Series A Carbon Neutral California One For more details Pager about this briefing: Blue Carbon Sequestration along California’s Coast ccst.us/expert-briefings Select Experts The following experts can advise on Blue Carbon pathways: Joanna Nelson, PhD Founder and Principal LandSea Science [email protected] http://landseascience.com/ Expertise: salt marsh ecology, coastal ecosystem conservation and resilience Lisa Schile-Beers, PhD Senior Associate Silvestrum Climate Associates Figure: Carbon cycles in coastal (blue carbon) habitats (The Watershed Company) Research Associate Smithsonian Environmental Background Research Center • Anthropogenic carbon emissions are a • Blue Carbon refers to carbon stored by [email protected] leading cause of climate change. coastal ecosystems including wetlands, salt Office: (415) 378-2903 marshes, seagrass meadows, and kelp forests. Expertise: wetland and marsh ecology, • California has set an ambitious goal of being carbon cycling, and sea level rise carbon neutral by 2045. • Restoring coastal habitats can increase blue • A combined approach of reducing emissions carbon sequestration and contribute to Melissa Ward, PhD and sequestering carbon – physically state goals. Post-doctoral Researcher removing CO2 from the atmosphere and San Diego State University [email protected] storing it long-term – can help California • Restored coastal habitats also provide many https://melissa-ward.weebly.com reach its goals. other co-benefits. Expertise: carbon storage in seagrass, SEQUESTERING Blue Carbon marsh, and kelp ecosystems in California’s Coastal Ecosystems Lisamarie Per unit area, coastal wetlands, marshes, and Benefits of Blue Carbon Habitats Windham-Myers, PhD eelgrass meadows capture more carbon than 1. Reduced atmospheric CO2 levels Research Ecologist terrestrial habitats such as forests. -
“Poop, Roots, and Deadfall: the Story of Blue Carbon”
“Poop, Roots, and Deadfall: The Story of Blue Carbon” Mark J. Spalding, President of The Ocean Foundation “ Poop, Roots, and Deadfall: The Story of Blue Carbon” Why Blue Carbon? • Blue carbon offers a win/win/win • It allows for collaborative multi-stakeholder engagement in climate change adaptation and mitigation “ Poop, Roots, and Deadfall: The Story of Blue Carbon” The Ocean and Carbon “ Poop, Roots, and Deadfall: The Story of Blue Carbon” • The ocean is by far the largest carbon sink in the world • It removes 20-35% of atmospheric carbon emissions • Biological life in the ocean captures and stores 93% of the earth’s carbon dioxide • It has been estimated that biological life in the high seas capture and store 1.5 billion metric tons of carbon dioxide per year “ Poop, Roots, and Deadfall: The Story of Blue Carbon” What is Blue Carbon? Christiaan Triebert “ Poop, Roots, and Deadfall: The Story of Blue Carbon” Blue Carbon is the ability of tidal wetlands, seagrass habitats, and other marine organisms to take up carbon dioxide and other greenhouse gases from the atmosphere, and store them helping to mitigate the effects of climate change. “ Poop, Roots, and Deadfall: The Story of Blue Carbon” • Carbon Sequestration – The process of capturing carbon dioxide from the atmosphere, measured as a rate of carbon uptake per year • Carbon Storage – the long-term confinement of carbon in plant materials or sediment, measured as a total weight of carbon stored “ Poop, Roots, and Deadfall: The Story of Blue Carbon” Carbon Stored and Sequestered By Coastal Wetlands • Carbon is held in the above and below ground plant matter and within wetland soils and seafloor sediments. -
Coastal Blue Carbon
COASTAL BLUE CARBON Coastal Blue Carbon is the carbon stored by and sequestered in coastal ecosystems, which include tidal wetlands, mangroves, and seagrass meadows. The Science Coastal Wetlands Carbon is held in aboveground plant matter and wetland soils. As These areas provide critical plants grow, carbon accumulates annually and is held in soils for ecological and economic centuries. values, such as habitat for Each year an average of nearly half a billion tons of CO2 (equal to the commercial and recreation 2008 emissions of Japan) are released through wetland degradation, fish, threatened and underscoring the need to protect our remaining wetlands. endangered species, storm and flood protection, Carbon Storage improved water quality, Global Averages tourism, and jobs, yet globally they are being lost Seagrass at an unsustainable rate of Soil Carbon 0.7-7% per year. Biomass Soil carbon Salt Marsh values for 1st meter of depth 3 Facts About Blue only Mangroves (total depth = Carbon Ecosystems several meters) Blue carbon ecosystems Tropical remove 10 times more CO2 Forest per hectare from the atmosphere than forest. 0 500 1000 1500 Mg CO2e/ha Wetlands primarily store carbon in the soils, where it Annual Soil Carbon Sequestration can remain for centuries. 9 8 Drained and degraded 7 coastal wetlands can 6 release this stored carbon 5 back into the atmosphere. 4 e/ha/yr 2 3 t CO t 2 1 0 Seagrass Mangroves Salt Marsh Tropical Forest RAE Efforts to Advance Blue Carbon Introducing Blue Carbon into the Carbon Markets Landmark study RAE developed the first global Tidal Wetland and Seagrass confirms climate Restoration Methodology, enabling project developers to implement tidal wetland restoration projects for GHG offset credits. -
S20 Biogeochemistry, Macronutrient And
S20 Biogeochemistry, macronutrient and carbon cycling in the benthic layer of coastal and shelf-seas Conveners: Gary Fones, Gennardi Lessin, Steve Widdicombe & Martin Solan Tuesday 6th September Oral Presentations 09.45 Benthic oxygen fluxes in variable tidal conditions and sediment composition Megan E. Williams (E) [National Oceanography Centre], Laurent O. Amoudry [National Oceanography Centre], Alejandro J. Souza [National Oceanography Centre], Henry A. Ruhl [National Oceanography Centre] & Daniel O.B. Jones [National Oceanography Centre] Abstract: Benthic sediments in coastal and shelf seas are a major contributor to remineralisation of organic matter and nutrient cycling, and oxygen consumption in benthic sediments can be used as a proxy to quantify this cycling of carbon and nutrients. The aquatic eddy covariance method has recently been developed to quantify benthic oxygen flux between sediments and the overlying water column. The method’s advantage is the ability measure fluxes representative of a large bed footprint with minimal bed and flow disturbance. As part of the UK Shelf Seas Biogeochemistry programme, a frame with velocity and oxygen sensors was deployed across seasons and at four sites across the sand-mud sediment gradient in the Celtic Sea (mud, sandy-mud, muddy-sand, sand). We will focus here on a comparison across the different sediment bed compositions for late-summer deployments, when wave conditions and any resulting contamination of the measurement are small. Data from August 2015 give distinctive oxygen consumption rates for different bed compositions in the Celtic Sea. Measurements at the mud site give oxygen fluxes an order of magnitude larger than at the other three sites, which all have higher percentage sand composition. -
Appendix B. Recommendations for Reach 5 to 9
APPENDIX B RECOMMENDATIONS FOR REACHES 5-9 FROM TOWN OPEN SPACE PLAN September 27, 1995 B-1 MONTAUK REACHES 5-9 OPEN SPACE RECOMMENDATIONS Recommended SCTM # 0300- Acres Characteristics Disposition 7-1-2.2 NA parcel consists of 7-1-2.2 & 2.3 (37.6 acres), rezone to A3 Residence Montauk airport, duneland, freshwater wetlands, moorland & downs, State Significant Habitat, adjoins protected open space 7-1-2.3 NA see 7-1-2.2 see 7-1-2.2 7-2-9.22 1.8 underwater land at Reed Pond dreen, State public acquisition under- Significant Habitat water 7-2-9.4 2.6 underwater land adjacent to Town water public acquisition under- access, State Significant Habitat water 9-1-4 16.4 see 9-1-8.2 see 9-1-8.2 9-1-6 19.0 see 9-1-8.2 see 9-1-8.2 9-1-7 5.4 see 9-1-8.2 see 9-1-8.2 9-1-8.2 272 parcel consists of 9-1-4, 6, 7, & 8.2 (272 open space subdivision w/ partial public acres), Fort Pond Bay shorefront, historic acquisition and archaeological resources, Culloden Point, freshwater wetlands, protected species, trails and beach access, beech forest, moorland, State Significant Habitat, proposed Culloden Point subdivision B-2 MONTAUK REACHES 5-9 OPEN SPACE RECOMMENDATIONS Recommended SCTM # 0300- Acres Characteristics Disposition 12-2-2.19 97.7 large moorland block, woodland, freshwater rezone all of property to A3 Residence; open wetlands space subdivision (coordinate access and open space with tract to east)/possible golf course location (site-specific DEIS) 12-3-3 15.3 part of large moorland block, woodland, open space subdivision (coordinate access freshwater -
North America's Blue Carbon
Blue Carbon Carbono azul Carbone bleu North America’s Blue Carbon Over the past eight years, scientists and policy-makers have increasingly focused on the impressive ability of coastal marine ecosystems to sequester, store and, when disturbed, even emit carbon. In 2009, coastal ecosystem carbon—the carbon captured and stored in salt marshes, tidal wetlands, seagrasses and mangroves—was first grouped under the term “blue carbon” in a United Nations Environment Programme (UNEP) report. It is now recognized that these “blue carbon ecosystems” provide a great service in combatting climate change by capturing and storing carbon. The degradation and loss of these ecosystems, however, result in a double impact: not only is their capacity to capture carbon from the atmosphere lost, but their stored carbon is also released, contributing to increasing levels of greenhouse gases in the atmosphere and the acidification of coastal waters. When these ecosystems are properly protected or restored, they play an important role in climate change mitigation and provide one of the Earth’s few natural mechanisms for counteracting Salt marshes, tidal wetlands, seagrasses and mangroves are distributed ocean acidification. Other key benefits of coastal protection and around North America restoration include food security, buffering coastal zones from storms, and supporting fish and wildlife populations. Carbon Accumulation Blue carbon ecosystems accumulate carbon in multiple ways. First, carbon is sequestered and stored in plant biomass. This includes aboveground (branches and leaves), belowground (roots) and non-living (dead wood) biomass. The amount of carbon stored in biomass can range from relatively high in mangrove forests to relatively low in seagrass meadows. -
Geographic Classification, 2003. 577 Pp. Pdf Icon[PDF – 7.1
Instruction Manual Part 8 Vital Records, Geographic Classification, 2003 Vital Statistics Data Preparation U.S. DEPARTMENT OF HEALTH AND HUMAN SERVICES Public Health Service Centers for Disease Control and Prevention National Center for Health Statistics Hyattsville, Maryland October, 2002 VITAL RECORDS GEOGRAPHIC CLASSIFICATION, 2003 This manual contains geographic codes used by the National Center for Health Statistics (NCHS) in processing information from birth, death, and fetal death records. Included are (1) incorporated places identified by the U.S. Bureau of the Census in the 2000 Census of Population and Housing; (2) census designated places, formerly called unincorporated places, identified by the U.S. Bureau of the Census; (3) certain towns and townships; and (4) military installations identified by the Department of Defense and the U.S. Bureau of the Census. The geographic place of occurrence of the vital event is coded to the state and county or county equivalent level; the geographic place of residence is coded to at least the county level. Incorporated places of residence of 10,000 or more population and certain towns or townships defined as urban under special rules also have separate identifying codes. Specific geographic areas are represented by five-digit codes. The first two digits (1-54) identify the state, District of Columbia, or U.S. Possession. The last three digits refer to the county (701-999) or specified urban place (001-699). Information in this manual is presented in two sections for each state. Section I is to be used for classifying occurrence and residence when the reporting of the geographic location is complete. -
Than Just a Bog: an Educational Resource for a and AS Level Geography and Higher Geography and Biology
www.sustainableuplands.org Originally prepared by: Jenny Townsend (Independent Educational Consultant) Professor Mark Reed (Birmingham City University) Funded by: Rural Economy & Land Use programme Cairngorms National Park Peak District National Park South West Water More than just a bog: an educational resource for A and AS Level Geography and Higher Geography and Biology . 2 Contents Activity Aims 3 Synopsis 3 Materials or props required 6 Arranging a site visit 6 About the authors 7 Support 7 Section 1: What are peatlands and why are they important? 8 Section 2: Damaged peatlands 21 Section 3: What does the future hold for peatlands? 25 Section 4: Involving everyone in decisions about our future environment – wind power case study 29 Section 5: Restoring peatlands 45 Section 6: Peatland National Parks 56 Section 7: Peat Cutting and Horticultural Use of Peat 61 Section 8: Case study – southwest moorlands 68 Section 9: Conclusions and further reading 83 3 Introduction to this resource: The resource is based on the latest research on peatlands, giving pupils a unique insight into the hidden beauty and value of these environments to UK society, how they have been damaged, and what we can do to restore and protect them. The resource is linked to SQA Higher and Advanced Higher curricula and the the OCR, CIE and AQA curricula for Geography A and AS level. It has been developed in collaboration with renowned learning and teaching consultant Jenny Townsend, University researchers, National Parks, the International Union for the Conservation of Nature, Project Maya Community Interest Company and RSPB. The resource is funded by the Cairngorms National Park, Peak District National Park, South West Water and the Government’s Economic and Social Research Council via the Rural Economy & Land Use programme. -
Newsletter Summer-Fall 2003.Pub
Summer-Fall 2003 Newsletter of the Webster County Conservation Board From the Director’s Desk….. By Charlie Miller s of May 1, I have been working for the Webster County Conservation Board for 25 years. Re- A flecting back on those 25 years brings many memories as well as a lot of changes. When I first started in 1978, our shop was in a little 20’ X 30’ room with two small light bulbs, no telephone, no running water and no bathroom facilities. We barely had room to get any equipment in to work on it so most of the equipment repairs were made in the parking lot. The office was in the residence at Kennedy Park and Bob Heun, the Director at the time, would have to put in 90 to 100 hours per week because there were no office hours for the doorbell or telephone. There was also no air conditioning in the office or residence and I remember many times seeing Bob dripping sweat over the paper work he was trying to work on using the typewriter. In 1978 we had 4 full-time people on staff, the Di- rector, two park rangers including myself, and one full time maintenance person. The Direc- tor's wife, Lucy, helped clean the campground shower building and shelter and we had a seasonal maintenance person, two seasonal night patrol, and several lifeguards. In 1978 the Conservation Board owned and managed 7 county areas with a total of 550 acres scattered around the county. My, how things have changed. Our old shop is now a storage shed and the present shop is 50x50 with room to work on many projects at the same time.