2. Sequester Carbon
Resources to help inform and execute climate change mitigation in the built environment. Capture, absorb, and store as much atmospheric carbon as possible.
2.0 Advocate
Convert emissions or energy data to the equivalent amount of carbon dioxide (CO2) emissions. The calculator helps you translate abstract measurements into concrete terms you can understand, such as the annual emissions from cars, households, or power plants. This calculator may be useful in communicating your greenhouse gas reduction strategy, reduction targets, or other initiatives aimed at reducing greenhouse gas emissions.
SOURCE: US Environmental Protection Agency (EPA)
ULI’s Decarbonization Program is focused on climate mitigation and makes the business case for green buildings by tying carbon reductions to increased asset value.
SOURCE: Urban Land Institute
2.1 Preserve Undeveloped Land and Vegetation
The Carbon Conscience tool is based on a broad research inquiry into embodied carbon in constructed landscapes. The app assists designers with evaluating proposed urban design and planning projects in respect to carbon-related impacts. The key metrics per land use (landscape, architectural, and ecological) considered are carbon emissions, storage, and sequestration.
SOURCE: Sasaki
InVEST enables decision makers to assess quantified tradeoffs associated with alternative management choices and to identify areas where investment in natural capital can enhance human development and conservation.
SOURCE: Stanford University
NRCS Conservation Practices included in COMET-Planner are only those that have been identified as having greenhouse gas mitigation and/or carbon sequestration benefits on farms and ranches. This list of conservation practices is based on the qualitative greenhouse benefits ranking of practices prepared by NRCS.
SOURCE: USDA NRCS
LEFT helps inform land use planning. Any landscape in the world can be assessed - up to approximately 100,000km2 at a time. Output maps include information on: risk assessment; biodiversity; vulnerability; intactness; connectivity and resilience.
SOURCE: University of Oxford
The Wetlands mapper provides current information on the status, extent, characteristics and functions of wetlands, riparian, and deepwater habitats in the US. This information is intended to promote the understanding and conservation of wetland resources through discovery and education as well as to aid in resource management, research and decision making.
SOURCE: U.S. Fish & Wildlife Service
A guide to purchasing sustainably sourced lumber and furniture.
SOURCE: Natural Resources Defense Council (NRDC)
2.2 Maximize Carbon Uptake With Plant Material
This web-based application allows registered users to estimate the carbon footprint and time to carbon neutral for landscape projects based on site design and management. Projects receive carbon feedback in the form of a Climate Positive Scorecard. It may be used for projects in the design phase or already completed projects.
SOURCE: Climate Positive Design
i-Tree is a state-of-the-art, peer-reviewed software suite from the USDA Forest Service that provides urban and rural forestry analysis and benefits assessment tools. The i-Tree tools can help strengthen forest management and advocacy efforts by quantifying forest structure and the environmental benefits that trees provide. i-Tree has nine core tools: ones for individual trees, tree canopy area, and tree planting. Try starting with i-Tree Eco.
SOURCE: USDA Forest Service
This interactive web mapping tool was developed to help communities in the United States estimate the local greenhouse gas (GHG) impacts of their forests and trees.
SOURCE: ICLEI – Local Governments for Sustainability USA
This calculator estimates the average lifetime carbon benefits of any tree, based on its size. And, it shows equivalents, so you can see just how beneficial a tree is to the planet.
SOURCE: 8 Billion Trees
This guide was developed through extensive experimental trials in 20 locations throughout England. It describes the Miyawaki method and its potential benefits, then goes on to describe, in detail how the sites were created, including a step-by-step guide and giving some examples.
SOURCE: Louise Butfoy, Kent County Council
2.3 Increase Soil Organic Carbon
NRCS Conservation Practices included in COMET-Planner are only those that have been identified as having greenhouse gas mitigation and/or carbon sequestration benefits on farms and ranches. This list of conservation practices is based on the qualitative greenhouse benefits ranking of practices prepared by NRCS.
SOURCE: USDA NRCS
A primer for landscape architects on improving soil quality and increasing organic matter. The resource includes specifications and practical tips.
SOURCE: US Composting Council, Sally Brown, Ron Alexander
Practical tips for arranging plants in order to increase soil organic carbon at the garden scale
SOURCE: Climate Wise Landscaping, Sue Reed, Ginny Stibolt
2.4 Regenerate Natural Carbon Sinks
The Carbon Conscience tool is based on a broad research inquiry into embodied carbon in constructed landscapes. The app assists designers with evaluating proposed urban design and planning projects in respect to carbon-related impacts. The key metrics per land use (landscape, architectural, and ecological) considered are carbon emissions, storage, and sequestration.
SOURCE: Sasaki
InVEST enables decision makers to assess quantified tradeoffs associated with alternative management choices and to identify areas where investment in natural capital can enhance human development and conservation.
SOURCE: Stanford University
NRCS Conservation Practices included in COMET-Planner are only those that have been identified as having greenhouse gas mitigation and/or carbon sequestration benefits on farms and ranches. This list of conservation practices is based on the qualitative greenhouse benefits ranking of practices prepared by NRCS.
SOURCE: USDA NRCS
LEFT helps inform land use planning. Any landscape in the world can be assessed - up to approximately 100,000km2 at a time. Output maps include information on: risk assessment; biodiversity; vulnerability; intactness; connectivity and resilience.
SOURCE: University of Oxford