A
Evaluate suitability of project site, species and/or infrastructure to future air and water temperature patterns and determine impact
Explain your project's suitability to future temperatures referring to data sources and local knowedge
Does future temperature look different than present?
Will the amount of change projected affect your project site, species, or infrastructure?
How may water quality be affected (pH, dissolved oxygen, temperature, turbidity, salinity contaminants, nutrients, sedimentation)
Will temperature change affect crucial functions? (e.g., evapotranspiration)?
Will invasive species to benefit from new conditions?
To answer these questions, use regional temperature projections.
B
Evaluate local sea level rise projections relevant to project area and determine impact
Explain how sea level rise may affect your project
Does future sea level look different than present?
Will the amount of change projected affect your project site, species, or infrastructure?
Will it affect slope stability or coastal erosion?
To answer these questions, use regional sea level rise projections for 2100 (or other date relevant for the project) and local knowledge related to coastal flooding.
Map these sea level rise projections for your project area (inclusive of its access corridors, key infrastructure) in relation to projected future coastal flood zones and frequently flooded areas (both episodic and chronic) based on the sea level rise projections. You can use a sea level rise viewer or your own GIS. If options exist, use high greenhouse gas emissions scenarios (e.g., RCP8.5 or similar), likely or 50% assessed probability.
C
Evaluate project suitability for future precipitation patterns and determine imapct
Explain your project's suitability to future precipitation patterns referring to data sources and local knowledge
Does future precipitation (annual or seasonal) look different than present? Is timing and intensity of precipitation projected to change? Will there be a change from snow to rain?
Will the amount of change projected diminish project benefits, negatively impact the ability to meet project goals, negatively affect design integrity, or otherwise affect the project?
Will there be flooding or other peak flow challenges?
Will there be slope instability or erosion?
Will water control or stormwater management design still function?
Will needed utility (water, sewer, power, broadband) services be available during flooding?
Will there be unacceptable low flow, or prolonged seasonal, annual or multi-year drought?
Will invasive species benefit from new conditions?
How may water quality be affected (pH, dissolved oxygen, temperature, turbidity, salinity contaminants, nutrients, sedimentation)?
To answer these questions, use regional precipitation, stream flow, and flood projections
D
Evaluate project vulnerability to wildfire and determine impact
Explain your project may be affected by or affect wildfire
Will long-term temperature and precipitation trends cause shifts in vegetation and habitats affecting your project’s vulnerability to wildfire or the ability to use land management techniques that rely on fire (e.g., prescribed burn)?
Will needed utility (water, sewer, power, broadband) services be available during fire, under fire prevention measures (planned power outages), and/or fire response measures (fuel breaks, water harvest)?
To answer these questions, map project area and its access corridors against Wildfire Hazard Areas or other local wildfire risk mapping tools.
E
Evaluate project vulnerability to changes in ecological function (e.g., shifts in phenology, range, composition, connectivity, fitness)
Explain how future conditions could affect the ecological function of the project and what actions will be taken to enhance ecological function and project success. When answering, consider how this may interact with other aspects of climate change you are evaluating.
For marine projects: In addition to previously mentioned impacts, how might ocean acidification affect ecological function
F
Evaluate project contribution to greenhouse gas emissions (emissions and sequestration)
Explain your project's contribution (during implementation and maintenance) to greenhouse gas emissions and carbon sequestration.
Does the project require use of an energy source (e.g., transportation, infrastructure)?
Will this result in greenhouse gas emissions from fossil fuel use?
Could there be greenhouse gas emissions from land use change or fire?
Could the affordability or availability of utilities (water, sewer, power) change given changing carbon policies and/or extreme events (fire, flood, wind)?
Is carbon sequestration a consideration for your project (If so, discuss potential risks to permanence, leakage, additionality)
Possible sources of local data include products from the Climate Adaptation Science Centers, the Climate Resilience Toolkit, regional universities, regional climate research groups, and state and federal agencies.
Climate Change Impacts and Adaptation in Washington State: Technical Summaries for Decision Makers
Future Climate Projections for Pacific Northwest and Great Basin Tribes
NOAA Sea Level Rise Viewer (only shows <6 feet. If your scenario shows >6 feet, use Surging Sea
Projected Sea Level Rise for Washington State - A 2018 Assessment
Washington State Department of Natural Resources Geological Information Portal
Precipitation
Projected Changes in Extreme Precipitation
Cal-Adapt Snowpack Projections
Soil Moisture
Drought
National Integrated Drought Information System
Cal-Adapt Extended Drought Scenarios
Stream Flow: Calculate or locate stream flow projections for your project site with a time horizon relevant to the lifetime of the project (10 years, 25 years, 50 years, or 100 years). Consider not just annual flow, but also temperature, seasonal variability, high flow and low flow periods.
Culvert Suitability Tool Washington State Culverrts and Climate Change
Cal-Adapt Stream Flow Projections
Flood Data: Map your project area (inclusive of its access corridors, key infrastructure) in relation to flood zones , frequently flooded areas (both episodic and chronic) and implications for slope stability and erosion.
NOAA Coastal Flood Exposure Maps
Slope Stability
Washington State Department of Natural resources Geological Information Portal
Michigan High Risk Erosion Areas
California Department of Conservation Geological Hazards
Wildfire
Wildfire Risk Explorer (for communities but could inform regionally)
Restoration
Forest Vegetation Change
Climate Forest Vegetation Simulator
Climate Change Projections for Tree Species in the Northwoods
Wildlife Sensitivities
Species Responses
Invasive Species
Invasive Range Expander Listing Tool
California Invasive Plant Council
Ocean Acidification