Ecosystem Protection | Preserve Habitat | Retreat from, and abandonment of, coastal barriers | |
Ecosystem Protection | Preserve Habitat | Purchase upland development rights or property rights | |
Ecosystem Protection | Preserve Habitat | Expand the planning horizons of land use planning to incorporate longer climate predictions | Maryland Analyzes Coastal Wetlands Susceptibility to Climate Change |
Ecosystem Protection | Preserve Habitat | Adapt protections of important biogeochemical zones and critical habitats as the locations of these areas change with climate | |
Ecosystem Protection | Preserve Habitat | Connect landscapes with corridors to enable migrations | Southwest Florida Assesses Salt Marsh Vulnerability to Sea Level Rise |
Ecosystem Protection | Preserve Habitat | Design estuaries with dynamic boundaries and buffers | |
Ecosystem Protection | Preserve Habitat | Replicate habitat types in multiple areas to spread risks associated with climate change | Pennsylvania Protects Coldwater Fisheries and Water Quality from Climate Change |
Stormwater Management and Water Quality | Apply Green Infrastructure Strategies | Use Bioretention to collect stormwater runoff Bioretention is an adapted landscape feature that provides onsite storage and infiltration of collected stormwater runoff. Stormwater runoff is directed from surfaces to a shallow depression that allows runoff to pond prior to infiltration in an area that is planted with water-tolerant vegetation. As runoff accumulates, it will pond and slowly travel through a filter bed (pictured on the right) where it either infiltrates into the ground or is discharged via an underdrain. Small-scale bioretention areas are often referred to as rain gardens. | |
Stormwater Management and Water Quality | Apply Green Infrastructure Strategies | Use Blue Roof to hold precipitation after a storm event and discharge it at a controlled rate A blue roof is designed to hold up to eight inches of precipitation on its surface or in engineered trays. It is comparable to a vegetated roof without soil or vegetation. After a storm event, precipitation is stored on the roof and discharged at a controlled rate. Blue roofs greatly decrease the peak discharge of runoff and also allow water to evaporate into the air prior to being discharged.20 Precipitation discharge is controlled on a blue roof through a flow restriction device around a roof drain. The water can either be slowly released to a storm sewer system or to another GI practice such as a cistern or bioretention area. | |
Stormwater Management and Water Quality | Apply Green Infrastructure Strategies | Use Permeable pavement to allow runoff to flow through and be temporarily stored prior to discharge Permeable pavement includes both pavements and pavers with void space that allow runoff to flow through the pavement (pictured left). Once runoff flows through the pavement, it is temporarily stored in an underground stone base prior to infiltrating into the ground or discharging from an under drain. Permeable pavers are highly effective at removing heavy metals, oils, and grease in runoff. Permeable pavement also removes nutrients such as phosphorous and nitrogen. Soil and engineered media filter pollutants as the runoff infiltrates through the porous surface. The void spaces in permeable pavement surfaces and reservoir layers provide storage capacity for runoff. All permeable pavement systems reduce runoff peak volume. | |
Stormwater Management and Water Quality | Apply Green Infrastructure Strategies | Use Underground storage systems to detain runoff in underground receptacles Underground storage systems vary greatly in design. Underground storage systems detain runoff in underground receptacles that slowly release runoff. Often the underground receptacles are culverts, engineered stormwater detention vaults, or perforated pipes. One of the benefits of underground storage is that it does not take up additional surface area and can be implemented beneath roadways, parking lots, or athletic fields. Underground storage systems are typically designed to store large volumes of runoff and therefore can have a significant impact in reducing flooding and peak discharges. | |
Stormwater Management and Water Quality | Apply Green Infrastructure Strategies | Use a stormwater tree trench to store and filter stormwater runoff A stormwater tree trench is a row of trees that is connected by an underground infiltration structure. At the ground level, trees planted in a tree trench do not look different than any other planted tree. Underneath the sidewalk, the trees sit in a trench that is engineered with layers of gravel and soil that store and filter stormwater runoff. Stormwater tree trenches provide both water quality and runoff reduction benefits. | |
Stormwater Management and Water Quality | Apply Green Infrastructure Strategies | Use a retention pond to manage stormwater A retention pond is one of the earliest prototypes of GI, and is now considered a more traditional type of stormwater infrastructure because it has been integrated into gray infrastructure design. It is an engineered stormwater basin designed to store runoff and release it at a controlled rate while maintaining a level of ponded water. Pollutants and sediment loads are reduced as the runoff is retained in the basin. Retention ponds are a very common stormwater management practice and may be designed with sustainable elements to increase water quality and decrease peak discharges. Vegetated forebays may be added to increase sediment removal as well as provide habitat. Another enhancement to traditional stormwater retention ponds is the addition of an ironenhanced sand filter bench that removes dissolved substances such as phosphorus from runoff. | DC Utilizes Green Infrastructure to Manage Stormwater |
Stormwater Management and Water Quality | Apply Green Infrastructure Strategies | Use extended detention wetlands to reduce flood risk and provide water quality and ecological benefits Extended detention wetlands, such as the one shown in the figure on the right, may be designed as a flood mitigation strategy that also provides water quality and ecological benefits. Extended detention wetlands can require large land areas, but come with significant flood storage benefits. Extended detention wetlands can be created, restored (from previously filled wetlands), or enhanced existing wetlands. Wetlands typically store flood water during a storm and release it slowly, thereby reducing peak flows. An extended detention wetland allows water to remain in the wetland area for an extended period of time, which provides increased flood storage as well as water quality benefits.29 Extended detention wetlands are distinct from preservation of existing wetlands, but the two practices often are considered together as part of a watershed-based strategy. | |
Stormwater Management and Water Quality | Build Staff Capacity | Provide training for municipal staff on green infrastructure Training can help to better equip staff to assess green infrastructure proposals. For example, EPA offers a Green Infrastructure Webcast Series. EPA and other federal agencies and nongovernmental organizations have formed the Green Infrastructure Collaborative, a network to help communities more easily implement green infrastructure. | |
Stormwater Management and Water Quality | Build Staff Capacity | Publicize a list of "certified or qualified" green infrastructure contractors and engineers Creating such a list can help connect experienced professionals with potential projects that could benefit from alternative design solutions. | |
Stormwater Management and Water Quality | Build Staff Capacity | Offer incentives for engineers or contractors to use green infrastructure designs, rather than relying on pipe-based systems. | |
Stormwater Management and Water Quality | Build Staff Capacity | Consider using or developing a stormwater model ordinance for green infrastructure This ordinance can help local jurisdictions incorporate climate change projections or green infrastructure incentives into local legislation. For example, the City of Seattle developed a citywide model ordinance for stormwater management using green infrastructure. | |
Stormwater Management and Water Quality | Build Staff Capacity | Conduct pilot studies Conduct pilot studies and publish the results and lessons learned to increase awareness and provide specific examples of how alternative stormwater management solutions perform. One specific need is additional examples that quantify infiltration rates in different areas to supplement existing knowledge. | DC Utilizes Green Infrastructure to Manage Stormwater |
Stormwater Management and Water Quality | Build Staff Capacity | Hire new staff with green infrastructure design and implementation experience This will help to complement existing staff knowledge and expertise. | |
Stormwater Management and Water Quality | Consider Cost and Benefits of Green Infrastructure | Ensure existing case studies are readily available Examples that cover a range of municipalities with different budgets and populations are helpful for local practitioners to find and consult studies that are similar to their own communities. | |
Stormwater Management and Water Quality | Consider Cost and Benefits of Green Infrastructure | Conduct research and collect data (e.g., what a city spent on repairs and replacement of infrastructure following a storm; job and recreational losses due to damaged or destroyed infrastructure) to facilitate improved quantification of the costs and benefits of green infrastructure investments. Provide opportunities for information sharing that are specific to economic valuation. Webinars, workshops, and tools can be used to disseminate existing knowledge and answer questions. | |
Stormwater Management and Water Quality | Consider Cost and Benefits of Green Infrastructure | Consider long-term benefits of green infrastructure in economic analysis of stormwater management plans Train local appraisers/commissioners to capture the full value of green infrastructure. Incorporate cobenefits into ROI calculations, such as ecosystem services and quality of life factors. | |
Stormwater Management and Water Quality | Consider Cost and Benefits of Green Infrastructure | Identify opportunities to integrate green infrastructure into other projects This can include projects where green infrastructure provides a co-benefit with little to no added cost (e.g., providing Americans with Disabilities Act [ADA]-compliant sidewalk access, adding a swale for pedestrian protection that also collects rainwater). | |
Stormwater Management and Water Quality | Consider Cost and Benefits of Green Infrastructure | Use cost planning scenarios that are based on real projects for the state or region Develop templates that can be used to assess how different green infrastructure methods and projects can work in an area and include cost estimation guidance. | |
Stormwater Management and Water Quality | Consider Cost and Benefits of Green Infrastructure | Develop tools to assist with quantifying costs and benefits Update or use existing tools including the EPA's National Stormwater Calculator, the Center for Neighborhood Technology's Green Values National Stormwater Management Calculator and The Value of Green Infrastructure guide. | |
Stormwater Management and Water Quality | Consider Cost and Benefits of Green Infrastructure | Collaborate across departments to coordinate collection of data on the costs and benefits of green infrastructure. For example, work with the financial departments to establish an easy tracking and reporting protocol to collect data related to costs and savings of implemented green infrastructure projects. Improve documentation regarding project funding and actual costs. Build a database to inform future projects. Suggest funding organizations incorporate requirements for enhanced financial and impact tracking reporting in project selection. | |
Stormwater Management and Water Quality | Consider Cost and Benefits of Green Infrastructure | Share existing information about how natural systems can be cost effective and efficient methods of stormwater control and flood mitigation Share information about the current status and the actual costs and values of projects that were implemented 10 or 20 years ago. Show how benefits and ROI have been realized through formats including videos or other readily accessible modes of communication. | |
Stormwater Management and Water Quality | Consider Cost and Benefits of Green Infrastructure | Present cost statistics in formats that can be shared with colleagues, elected officials, and the public. Develop communication materials that can be used in conversations with different audiences (e.g., use common terminology to help nontechnical stakeholders better understand the value of green infrastructure). | |
Stormwater Management and Water Quality | Consider Cost and Benefits of Green Infrastructure | Incorporate cost and benefit information into tools (e.g., visualization tools) that can support project planning and assist in communications with multiple audiences Examples include such as the Connecticut Nonpoint Education for Municipal Officials (CT NEMO) Rain Garden App; provide information about the multiple ecosystem services provided by green infrastructure, such as the U.S. Forest Service's i-Tree tool that estimates ecosystem services from trees used for urban stormwater runoff control that also provide local cooling services. | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Seek opportunities to incorporate climate change adaptation measures into existing plans Examples may include comprehensive plans or watershed-scale plans. Determine the level of plan that may be the best scale at which to address climate change. | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Assess whether green infrastructure could be included as a control measure in Municipal Separate Storm Sewer Systems (MS4s). MS4s transport stormwater runoff that is often discharged into water bodies. Since 1999, even small MS4s within and outside urbanized areas have been required to obtain National Pollutant Discharge Elimination System permit coverage. Jurisdictions with MS4s can include green infrastructure as a control measure. EPA published a factsheet that discusses how green infrastructure can be integrated into stormwater permits and provides examples of communities that have done so. | DC Utilizes Green Infrastructure to Manage Stormwater |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Consider offering incentives for green infrastructure to manage stormwater. Consider incentives such as fast-track permitting for projects that adhere to a more strict set of requirements (e.g., projects that manage 80% of runoff onsite or incorporate a green roof). | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Consider regulatory changes at the federal or state level to minimize variance regarding stormwater infrastructure guidance and regulations among communities. | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Convene stakeholders from across the watershed to address barriers Bringing together relevant agencies, organizations, and individuals responsible for stormwater management decisions from across watersheds can help address barriers presented by different regulations, budget limitations, and expectations for growth. Representatives of water management, environmental, land use planning, public works, and transportation departments (among others) are important to include because each of these agencies plays a role in stormwater management. | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Coordinate across federal, state, local, and tribal agencies Engage the full suite of agencies and departments, particularly at the federal level, that affect or could be affected by solutions to address changing climate conditions in stormwater management. Consider involving, for example, FEMA, the Army Corps of Engineers, Departments of Transportation, Parks and Recreation, and State Departments of Ecology or Natural Resources. Also encourage a "no wrong door policy" (i.e., that data and information is shared across web portals and resources are shared across agencies). Seven federal agencies have come together with nongovernmental organizations and private-sector entities to support the Green Infrastructure Collaborative, a network to help communities more easily implement green infrastructure. | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Coordinate regional policies to minimize the impact on individual communities. While development may be deterred when individual communities change local standards independently, potentially negative impacts could be avoided if surrounding municipalities agree to adopt similar policies. | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Develop a methodology and schedule for maintenance that includes details about who is responsible for maintenance and new protocols. Establish this protocol early in the project planning phase to avoid future confusion or mismanagement. For example, Washington, DC's Stormwater Management Guidebook (CWP, 2013), provides for a stormwater retention credit program for certification. To be eligible for certification, a best management practice must, among other criteria, provide a contract or agreement for ongoing maintenance and pass ongoing maintenance inspections. | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Find ways that the state or county can provide incentives for regions to develop watershed-scale plans. | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Incorporate green infrastructure and LID into existing plans, such as watershed implementation plans (WIPs). | DC Utilizes Green Infrastructure to Manage Stormwater |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Look for opportunities to develop a regional or watershed-scale plan for stormwater management. This may be more cost effective than developing individual plans. | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Provide individual homeowners and businesses with information about how to correctly maintain green infrastructure design elements (e.g., rain gardens, vegetated swales, and other installations). This may also entail offering financial incentives in places where individual homeowners are responsible for installation and maintenance, to help individuals pay for the maintenance of this public good. | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Request modifications to reporting requirements Request modifications (e.g., MS4, others) so that schedules are complimentary to efforts and the same/complimentary goals are being targeted for different projects. Also seek schedule variances for some reporting requirements (e.g., MS4, others), as needed, within a given community. | |
Stormwater Management and Water Quality | Consider Stormwater Management Logistics | Use pilot projects or those with minimal barriers to explore collaboration among agencies. | DC Utilizes Green Infrastructure to Manage Stormwater |
Water Utility Protection | Construct new infrastructure | Relocate facilities to higher elevations Relocating utility infrastructure, such as treatment plants and pump stations, to higher elevations would reduce risks from coastal flooding and exposure as a result of coastal erosion or wetland loss. | Smart Growth Along the Riverfront Helps Manage Stormwater in Iowa City, Iowa |
Water Utility Protection | Construct new infrastructure | Build flood barriers to protect infrastructure Flood barriers to protect critical infrastructure include levees, dikes and seawalls. A related strategy is flood proofing, which involves elevating critical equipment or placing it within waterproof containers or foundation systems. | Blue Plains Wastewater Facility in Washington DC Reinforces Facility Against Floods, Anacortes, Washington Rebuilds Water Treatment Plant for Climate Change |
Water Utility Protection | Construct new infrastructure | Build infrastructure needed for aquifer storage and recovery Increasing the amount of groundwater storage available promotes recharge when surface water flows are in excess of demand, thus increasing climate resilience for seasonal or extended periods of drought, and taking advantage of seasonal variations in surface water runoff. Depending on whether natural or artificial aquifer recharge is employed, the required infrastructure may include percolation basins and injection wells. | |
Ecosystem Protection | Maintain Water Quality & Availability | Prevent or limit groundwater extraction from shallow aquifers | |
Ecosystem Protection | Maintain Water Quality & Availability | Create water markets – transferring land and water from agricultural to community use | |
Ecosystem Protection | Maintain Water Quality & Availability | Establish or broaden "use containment areas" to allocate and cap water withdrawal | |
Water Utility Protection | Construct new infrastructure | Diversify options for water supply and expand current sources Diversifying sources helps to reduce the risk that water supply will fall below water demand. Examples of diversified source water portfolios include using a varying mix of surface water and groundwater, employing desalination when the need arises and establishing water trading with other utilities in times of water shortages or service disruption. | Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Water Utility Protection | Construct new infrastructure | Increase water storage capacity Increased drought can reduce the safe yield of reservoirs. To reduce this risk, increases in available storage can be made. Methods for accomplishing this may include raising a dam, practicing aquifer storage and recovery, removing accumulated sediment in reservoirs or lowering water intake elevation. | Fredericktown, Missouri Prepares for Climate Change Drought Risk |
Water Utility Protection | Construct new infrastructure | Plan and establish alternative or on-site power supply Water utilities are one of the major consumers of electricity in the United States. With future electricity demand forecasted to grow, localized energy shortages may occur. The development of "off-grid" sources can be a good hedging strategy for electricity shortfalls. Moreover, redundant power supply can provide resiliency for situations in which natural disasters cause power outages. On-site sources can include solar, wind, inline microturbines and biogas (i.e., methane from wastewater treatment). New and back-up electrical equipment should be located above potential flood levels. | |
Ecosystem Protection | Maintain and Restore Wetlands | Allow coastal wetlands to migrate inland (e.g., through setbacks, density restrictions, land purchases | Maryland Analyzes Coastal Wetlands Susceptibility to Climate Change |
Ecosystem Protection | Maintain and Restore Wetlands | Promote wetland accretion by introducing sediment | |
Ecosystem Protection | Maintain and Restore Wetlands | Prohibit hard shore protection | |
Ecosystem Protection | Maintain and Restore Wetlands | Remove hard protection or other barriers to tidal and riverine flow (e.g., riverine and tidal dike removals) | |
Ecosystem Protection | Maintain and Restore Wetlands | Incorporate wetland protection into infrastructure planning (e.g., transportation planning, sewer utilities) | |
Ecosystem Protection | Maintain and Restore Wetlands | Preserve and restore the structural complexity and biodiversity of vegetation in tidal marshes, seagrass meadows, and mangroves | Southwest Florida Assesses Salt Marsh Vulnerability to Sea Level Rise |
Ecosystem Protection | Maintain and Restore Wetlands | Identify and protect ecologically significant ("critical") areas such as nursery grounds, spawning grounds, and areas of high species diversity | San Juan Bay Estuary Program Assesses Vulnerability and Targets Adaptation Measures |
Ecosystem Protection | Maintain and Restore Wetlands | Establish rolling easements | |
Ecosystem Protection | Maintain and Restore Wetlands | Maintain Sediment Transport | |
Ecosystem Protection | Maintain and Restore Wetlands | Trap or add sand through beach nourishment – the addition of sand to a shoreline to enhance or create a beach area | |
Ecosystem Protection | Maintain and Restore Wetlands | Trap sand through construction of groins – a barrier type structure that traps sand by interrupting longshore transport | |
Ecosystem Protection | Maintain and Restore Wetlands | Create a regional sediment management (RSM) plan | |
Ecosystem Protection | Maintain and Restore Wetlands | Develop adaptive stormwater management practices (e.g., promoting natural buffers, adequate culvert sizing) | Barre City, Vermont Accounts for Climate Change within a Brownfield Redevelopment Plan |
Ecosystem Protection | Maintain Water Quality & Availability | Plug drainage canals | |
Water Utility Protection | Increase System Efficiency | Finance and facilitate systems to recycle water Recycling greywater frees up more finished water for other uses, expanding supply and decreasing the need to discharge into receiving waters. Receiving water quality limitations may increase due to more frequent droughts. Therefore, to limit wastewater discharges, use of reclaimed water in homes and businesses should be encouraged. | |
Ecosystem Protection | Maintain Water Quality & Availability | Design new coastal drainage system | |
Ecosystem Protection | Maintain Water Quality & Availability | Incorporate sea level rise into planning for new infrastructure (e.g., sewage systems) | Southeast Florida Compact Analyzes Sea Level Rise Risk |
Ecosystem Protection | Maintain Water Quality & Availability | Develop adaptive stormwater management practices (e.g., remove impervious surface, replace undersized culverts) | |
Water Utility Protection | Increase System Efficiency | Improve energy efficiency and optimization of operations Water utilities are one of the major consumers of electricity in the United States. With future electricity demand forecasted to grow, localized energy shortages may be experienced. Energy efficiency measures will save in energy costs and make utilities less vulnerable to electricity shortfalls due to high demand or service disruptions from natural disasters. | |
Water Utility Protection | Increase System Efficiency | Practice conjunctive use Conjunctive use involves the coordinated, optimal use of both surface water and groundwater, both intra- and inter-annually. Aquifer storage and recovery is a form of conjunctive use. For example, a utility may store some fraction of surface water flows in aquifers during wet years and withdraw this water during dry years when the river flow is low. Depending on whether natural or artificial aquifer recharge is employed, the required infrastructure may include percolation basins and injection wells. | Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Ecosystem Protection | Maintain Water Quality & Availability | Integrate climate change scenarios into water supply system | Southeast Florida Compact Analyzes Sea Level Rise Risk |
Ecosystem Protection | Maintain Water Quality & Availability | Manage water demand (through water reuse, recycling, rainwater harvesting, desalination, etc.) | |
Water Utility Protection | Model Climate Risk | Conduct extreme precipitation events analyses An increase in the magnitude or frequency of extreme events can severely challenge water utility systems that were not designed to withstand intense events. Extreme event analyses or modeling can help develop a better understanding of the risks and consequences associated with these types of events. | Camden, New Jersey Uses Green Infrastructure to Manage Stormwater |
Water Utility Protection | Model Climate Risk | Conduct sea-level rise and storm surge modeling Modeling sea-level rise and storm surge dynamics will better inform the placement and protection of critical infrastructure. Generic models have been developed to consider subsidence, global sea-level rise and storm surge effects on inundation, including National Oceanic and Atmospheric Administration's (NOAA) SLOSH (Sea, Lake and Overland Surges from Hurricanes) Model and The Nature Conservancy's Coastal Resilience Tool, amongst others. | Manchester-by-the-Sea, Massachusetts Assesses Climate Vulnerability |
Water Utility Protection | Model Climate Risk | Develop models to understand potential water quality changes In many areas, increased water temperatures will cause eutrophication and excess algal growth, which will reduce drinking water quality. The quality of drinking water sources may also be compromised by increased sediment or nutrient inputs due to extreme storm events. These impacts may be addressed with targeted watershed management plans. | Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Water Utility Protection | Model Climate Risk | Model and monitor groundwater conditions Understanding and modeling groundwater conditions will inform aquifer management and projected water quantity and quality changes. Monitoring data for aquifer water level, changes in chemistry and detection of saltwater intrusion can be incorporated into models to predict future supply. Climate change may lead to diminished groundwater recharge in some areas because of reduced precipitation and decreased runoff. | Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Water Utility Protection | Model Climate Risk | Model and reduce inflow/infiltration in the sewer system More extreme storm events will increase the amount of wet weather infiltration and inflow into sanitary and combined sewers. Sewer models can estimate the impact of those increased wet weather flows on wastewater collection system and treatment plant capacity and operations. Potential system modifications to reduce those impacts include infiltration reduction measures, additional collection system capacity, offline storage or additional peak wet weather treatment capacity. | |
Water Utility Protection | Model Climate Risk | Use hydrologic models to project runoff and future water supply In order to understand how climate change may impact future water supply and water quality, hydrologic models, coupled with projections from climate models, must be developed. It is important to work towards an understanding of how both the mean and temporal (seasonal) distribution of surface water flows may change. Groundwater recharge, snowpack and the timing of snowmelt are critical areas that may be severely impacted by climate change and should be incorporated into the analysis. | Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Water Utility Protection | Modify Land Use | Acquire and manage ecosystems Intact natural ecosystems have many benefits for utilities: reducing sediment and nutrient inputs into source water bodies, regulating runoff and streamflow, buffering against flooding and reducing storm surge impacts and inundation on the coasts (e.g., mangroves, saltwater marshes, wetlands). Utilities can also work with regional floodplain managers and appropriate stakeholders to explore non-structural flood management techniques in the watershed. Protecting, acquiring and managing ecosystems in buffer zones along rivers, lakes, reservoirs and coasts can be cost-effective measures for flood control and water quality management. | |
Water Utility Protection | Modify Land Use | Implement green infrastructure on site and in municipalities Green infrastructure can help reduce runoff and stormwater flows that may otherwise exceed system capacity. Examples of green infrastructure include: bio-retention areas (rain gardens), low impact development methods, green roofs, swales (depressions to capture water) and the use of vegetation or pervious materials instead of impervious surfaces. | Camden, New Jersey Uses Green Infrastructure to Manage Stormwater, DC Utilizes Green Infrastructure to Manage Stormwater |
Water Utility Protection | Modify Land Use | Implement watershed management Watershed management includes a range of policy and technical measures. These generally focus on preserving or restoring vegetated land cover in a watershed and managing stormwater runoff. These changes help mimic natural watershed hydrology, increasing groundwater recharge, reducing runoff and improving the quality of runoff. | |
Water Utility Protection | Modify Land Use | Integrate flood management and modeling into land use planning It is critical that future water utility infrastructure be planned and built in consideration of future flood risks. Infrastructure can be built in areas that do not have a high risk of future flooding. Alternately, appropriate flood management plans can be implemented that involve 'soft' adaptation measures such as conserving natural ecosystems or 'hard' measures such as dikes and flood walls. | Smart Growth Along the Riverfront Helps Manage Stormwater in Iowa City, Iowa |
Water Utility Protection | Modify Land Use | Study response of nearby wetlands to storm surge events Coastal wetlands act as buffers to storm surge. Protecting and understanding the ability of existing wetlands to provide protection for coastal infrastructure in the future is important considering projected sea-level rise and possible changes in storm severity. | |
Water Utility Protection | Modify Land Use | Update fire models and practice fire management plans Fire frequency and severity may change in the future, therefore it is important to develop, practice and regularly update management plans to reduce fire risk. Controlled burns, thinning and weed and invasive plant control help to reduce risk in wildfire-prone areas. | |
Water Utility Protection | Modify Water Demand | Encourage and support practices to reduce water use at local power plants The electricity sector withdraws the greatest amount of water in the United States, compared with other sectors. Any efforts to reduce water usage by utilities (e.g., closed-loop water circulation systems or dry cooling for the turbines) will increase available water supply. For example, utilities may provide reclaimed water to electric utilities for electricity generation. | |
Water Utility Protection | Modify Water Demand | Model and reduce agricultural and irrigation water demand Agriculture represents the second largest user of water in the United States in terms of withdrawals. In order to forecast and plan for future water supply needs, agricultural (irrigation) demand must be projected, particularly in drought-prone areas. For example, to reduce agricultural water demand, utilities can work with farmers to adopt advanced micro-irrigation technology (e.g., drip irrigation). | |
Water Utility Protection | Modify Water Demand | Model future regional electricity demand The electricity sector represents the largest user of water in the United States in terms of withdrawals. In order to forecast future water supply needs, changes in electricity demand related to climate change must be projected. | |
Water Utility Protection | Modify Water Demand | Practice water conservation and demand management An effective and low-cost method of meeting increased water supply needs is to implement water conservation programs that will cut down on waste and inefficiencies. Public outreach is an essential component of any water conservation program. Outreach communications typically include: basic information on household water usage, the best time of day to undertake water-intensive activities and information on and access to water efficient household appliances such as low-flow toilets, showerheads and front-loading washers. Education and outreach can also be targeted to different sectors (i.e., commercial, institutional, industrial, public sectors). Effective conservation programs in the community include those that provide rebates or help install water meters, water-conserving appliances, toilets and rainwater harvesting tanks. | |
Water Utility Protection | Monitor Operational Capabilities | Conduct stress testing on wastewater treatment biological systems to assess tolerance to heat Increased surface water temperature may require changes to wastewater treatment systems, as microbial species used may react differently in warmer environments. Stress testing involves subjecting biological systems or bench-top simulations of systems to elevated temperatures and monitoring the impacts on treatment processes. | |
Water Utility Protection | Monitor Operational Capabilities | Manage reservoir water quality Changes in precipitation and runoff timing, coupled with higher temperatures due to climate change, may lead to diminished reservoir water quality. Reservoir water quality can be maintained or improved by a combination of watershed management, to reduce pollutant runoff and promote groundwater recharge and reservoir management methods, such as lake aeration. | |
Water Utility Protection | Monitor Operational Capabilities | Monitor and inspect the integrity of existing infrastructure Monitoring is a critical component of establishing a measure of current conditions, detecting deterioration in physical assets and evaluating when the necessary adjustments need to be made to prolong infrastructure lifespan. | |
Water Utility Protection | Monitor Operational Capabilities | Monitor current weather conditions A better understanding of weather conditions provides a utility with the ability to recognize possible changes in climate change and then identify the subsequent need to alter current operations to ensure resilient supply and services. Observations of precipitation, temperature and storm events are particularly important for improving models of projected water quality and quantity. | |
Water Utility Protection | Monitor Operational Capabilities | Monitor flood events and drivers Understanding and modeling the conditions that result in flooding is an important part of projecting how climate change may drive change in future flood occurrence. Monitoring data for sea level, precipitation, temperature and runoff can be incorporated into flood models to improve predictions. Current flood magnitude and frequency of storm events represents a baseline for considering potential future flood conditions. | |
Water Utility Protection | Monitor Operational Capabilities | Monitor surface water conditions Understanding surface water conditions and the factors that alter quantity and quality is an important part of projecting how climate change may impact water resources. Monitoring data for discharge, snowmelt, reservoir or stream level, upstream runoff, streamflow, in-stream temperature and overall water quality can be incorporated into models of projected supply or receiving water quality. | Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Water Utility Protection | Monitor Operational Capabilities | Monitor vegetation changes in watersheds Changes in vegetation alter the runoff that enters surface water bodies and the risk of wildfire to facilities within the watershed. Monitoring vegetation changes can be conducted by ground cover surveys, aerial photography or by relying on the research from local conservation groups and universities. | |
Water Utility Protection | Plan for Climate Change | Adopt insurance mechanisms and other financial instruments Adequate insurance can insulate utilities from financial losses due to extreme weather events, helping to maintain financial sustainability of utility operations. | |
Water Utility Protection | Plan for Climate Change | Conduct climate change impacts and adaptation training An important step in developing an adaptation program is educating staff on climate change. Staff should have a basic understanding of the projected range of changes in temperature and precipitation, the increase in the frequency and magnitude of extreme weather events for their region and how these changes may affect the utility's assets and operations. Preparedness from this training can improve utility management under current climate conditions as well. | Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Water Utility Protection | Plan for Climate Change | Develop coastal restoration plans Coastal restoration plans may protect water utility infrastructure from damaging storm surge by increasing protective habitat of coastal ecosystems such as mangroves and wetlands. Restoration plans should consider the impacts of sea-level rise and development on future ecosystem distribution. Successful strategies may also consider rolling easements and other measures identified by EPA's Climate Ready Estuaries program. | |
Water Utility Protection | Plan for Climate Change | Develop emergency response plans Emergency response plans (ERPs) outline activities and procedures for utilities to follow in case of an incident, from preparation to recovery. Some of the extreme events considered in ERPs may change in their frequency or magnitude due to changes in climate, which may require making changes to these plans to capture a wider range of possible events. | |
Water Utility Protection | Plan for Climate Change | Develop energy management plans for key facilities Energy management plans identify the most critical systems in a facility, provide backup power sources for those systems and evaluate options to reduce power consumption by upgrading to more efficient equipment. Utilities may develop plans to produce energy, reduce use and work toward net-zero goals. | |
Water Utility Protection | Plan for Climate Change | Establish mutual aid agreements with neighboring utilities Beyond the establishment of water trading in times of water shortages or service disruptions, these agreements involve the sharing of personnel and resources in times of emergency (e.g., natural disasters). | |
Water Utility Protection | Plan for Climate Change | Identify and protect vulnerable facilities Operational measures to isolate and protect the most vulnerable systems or assets at a utility should be considered. For example, critical pump stations would include those serving a large population and those located in a flood zone. Protection of these assets would then be prioritized based on the likelihood of flood damage and the consequence of service disruption. | Anacortes, Washington Rebuilds Water Treatment Plant for Climate Change |
Water Utility Protection | Plan for Climate Change | Integrate climate-related risks into capital improvement plans Plans to build or expand infrastructure should consider the vulnerability of the proposed locations to inland flooding, sea-level rise, storm surge and other impacts associated with climate change. | Anacortes, Washington Rebuilds Water Treatment Plant for Climate Change Smart Growth Along the Riverfront Helps Manage Stormwater in Iowa City, Iowa Blue Plains Wastewater Facility in Washington DC Reinforces Facility Against Floods DC Utilizes Green Infrastructure to Manage Stormwater |
Water Utility Protection | Plan for Climate Change | Participate in community planning and regional collaborations Effective adaptation planning requires the cooperation and involvement of the community. Water utilities will benefit by engaging in climate change planning efforts with local and regional governments, electric utilities and other local organizations. | |
Water Utility Protection | Plan for Climate Change | Update drought contingency plans Drought leads to severe pressures on water supply. Drought contingency plans would include the use of alternate water supplies and the adoption of water use restrictions for households, businesses and other water users. These plans should be updated regularly to remain consistent with current operations and assets. | Fredericktown, Missouri Prepares for Climate Change Drought Risk |
Ecosystem Protection | Preserve Coastal Land and Development | Land exchange programs – owners exchange property in the floodplain for county-owned land outside of the floodplain | |
Ecosystem Protection | Preserve Coastal Land and Development | Integrate coastal management into land use planning | Maryland Analyzes Coastal Wetlands Susceptibility to Climate Change |
Ecosystem Protection | Preserve Coastal Land and Development | Create permitting rules that constrain locations for landfills, hazardous waste dumps, mine tailings, and toxic chemical facilities | |
Ecosystem Protection | Preserve Coastal Land and Development | Manage realignment and deliberately realign engineering structures affecting rivers, estuaries, and coastlines | |
Ecosystem Protection | Preserve Coastal Land and Development | Land acquisition program – purchase coastal land that is damaged or prone to damage and use it for conservation | |
Ecosystem Protection | Preserve Coastal Land and Development | Integrated Coastal Zone Management (ICZM) – using an integrated approach to achieve sustainability | |
Ecosystem Protection | Preserve Coastal Land and Development | Incorporate consideration of climate change impacts into planning for new infrastructure (e.g., homes, businesses) | |
Stormwater Management and Water Quality | Provide Public Awareness and Coordination | Create opportunities for staff to exchange experiences and ideas for programs (e.g., interdepartmental meetings, workshops, webinars, online forums). Ensure that senior management is on-board and that the administrative and fiscal mechanisms of the city enable interdepartmental collaboration. | |
Stormwater Management and Water Quality | Provide Public Awareness and Coordination | Engage in existing peer-to-peer networks These networks connect communities at varying stages of implementation and include the GLAA-C, Urban Sustainability Directors Network (USDN), American Society of Adaptation Professionals (ASAP), and the Great Lakes Saint Lawrence Cities Initiative. | |
Stormwater Management and Water Quality | Provide Public Awareness and Coordination | Take advantage of existing resources that promote information sharing. EPA, as well as NOAA and other federal agencies provide tools, guides, and case studies of green infrastructure projects conducted with a large number of communities across the country. | |
Stormwater Management and Water Quality | Provide Public Awareness and Coordination | Build awareness and knowledge via climate change and stormwater management curriculum On-the-job training and continuing education opportunities, which can help to increase the climate literacy of existing staff and ensure timely application of research designed to address decision-maker needs. Also, use educational projects in schools or at community centers as opportunities to disseminate climate change information to the public. | |
Stormwater Management and Water Quality | Provide Public Awareness and Coordination | Adopt more stringent policies Adopt more stringent policies such as stormwater fees and requirements for developers to manage water onsite to the maximum extent feasible. Similarly, require developers to make decisions informed by future climate, and local governments to incorporate climate change into decision-making processes. | |
Stormwater Management and Water Quality | Provide Public Awareness and Coordination | Developers can demonstrate attractive, cost-effective, marketable solutions If the market offers innovative stormwater solutions or climate resilient developments that are attractive and effective, the public will more likely favor these best available options. A developer-driven solution may be most effective in an area that is rapidly changing. For instance, the recently developed Celebrate Senior Center in Fredericksburg, Virginia, is using 65 bioretention areas and 15 water quality swales to treat 43 acres of manicured landscape. Stafford County anticipates that this project will demonstrate that green infrastructure solutions can offer amenities that increase the value of the landscape while managing stormwater onsite. | |
Stormwater Management and Water Quality | Provide Public Awareness and Coordination | Showcase green infrastructure climate adaptation projects Use redevelopment projects as onsite demonstrations of ways to adapt to climate change using LID, green streets, or environmental site design. Such demonstrations will make these approaches highly visible to the public, politicians, decision makers, and project partners. | Camden, New Jersey Uses Green Infrastructure to Manage Stormwater |
Stormwater Management and Water Quality | Provide Public Awareness and Coordination | Collaborate with community groups Collaboration through activities such as tree planting or installing rain gardens can be an effective adaptation measure. In all work with individuals and community groups, be sensitive to hot button topics that may distract from the purpose of the conversation and the issues that the work intends to address. For example, if climate change is a highly political issue, it may be useful to steer the conversation towards observed and projected changes for specific endpoints of concern (e.g., changes in 25-year storm event or the intensity of brief downpours) or green infrastructure's cobenefits to a community's livability and economic vitality. Focusing on issues of vulnerability and future weather changes can help to move discussions forward and avoid some of the potential barriers that arise when using the term "climate change". | |
Water Utility Protection | Repair and Retrofit Facilities | Implement policies and procedures for post-flood and/or post-fire repairs Post-disaster policies should minimize service disruption due to damaged infrastructure. These contingency plans should be incorporated into other planning efforts and updated regularly to remain consistent with any changes in utility services or assets. | Iowa City, Iowa Closes Vulnerable Wastewater Facility |
Water Utility Protection | Repair and Retrofit Facilities | Implement saltwater intrusion barriers and aquifer recharge As sea level rises, saltwater may intrude into coastal aquifers, resulting in substantially higher treatment costs. The injection of fresh water into aquifers can help to act as a barrier, while intrusion recharges groundwater resources. | Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Water Utility Protection | Repair and Retrofit Facilities | Improve pumps for backflow prevention Sea-level rise and coastal storm surge can cause wastewater outlets to backflow. To prevent this, stronger pumps may be necessary. | Southeast Florida Compact Analyzes Sea Level Rise Risk |
Water Utility Protection | Repair and Retrofit Facilities | Increase capacity for wastewater and stormwater collection and treatment Precipitation variability will increase in many areas. Even in areas where precipitation and runoff may decrease on average, the distribution of rainfall patterns (i.e., intensity and duration) can change in ways that impact water infrastructure. In particular, more extreme storms may overwhelm combined wastewater and stormwater systems. | Iowa City, Iowa Closes Vulnerable Wastewater Facility |
Water Utility Protection | Repair and Retrofit Facilities | Increase treatment capabilities Existing water treatment systems may be inadequate to process water of significantly reduced quality. Significant improvement to existing treatment processes or implementation of additional treatment technologies may be necessary to ensure that quality of water supply (or effluent) continues to meet standards as climate change impacts source or receiving water quality. | Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Water Utility Protection | Repair and Retrofit Facilities | Install effluent cooling systems Higher surface temperatures may make meeting water quality standards and temperature criteria more difficult. Therefore, to reduce the temperature of treated wastewater discharges, additional effluent cooling systems may be needed. | |
Water Utility Protection | Repair and Retrofit Facilities | Retrofit intakes to accommodate lower flow or water levels In areas where streamflow declines due to climate change, water levels may fall below intakes for water treatment plants. | |
Ecosystem Protection | Use "Hard" Shoreline Maintenance | Fortify dikes | |
Ecosystem Protection | Use "Hard" Shoreline Maintenance | Harden shorelines with bulkheads – anchored, vertical barriers constructed at the shoreline to block erosion | |
Ecosystem Protection | Use "Hard" Shoreline Maintenance | Harden shorelines with seawalls | |
Ecosystem Protection | Use "Hard" Shoreline Maintenance | Harden shorelines with revetments that armor the slope face of the shoreline | |
Ecosystem Protection | Use "Hard" Shoreline Maintenance | Harden shorelines with breakwaters – structures placed offshore to reduce wave action | |
Ecosystem Protection | Use "Hard" Shoreline Maintenance | Headland control – reinforce or accentuate an existing geomorphic feature or create an artificial headland (e.g., Geotextile tubes) | |
Ecosystem Protection | Use "Soft" Shoreline Maintenance | Replace shoreline armoring with living shorelines – through beach nourishment, planting vegetation, etc | San Juan Bay Estuary Program Assesses Vulnerability and Targets Adaptation Measures |
Ecosystem Protection | Use "Soft" Shoreline Maintenance | Remove shoreline hardening structures such as bulkheads, dikes, and other engineered structures to allow for shoreline migration | |
Ecosystem Protection | Use "Soft" Shoreline Maintenance | Plant SAV (such as sea grasses) to stabilize sediment and reduce erosion | San Juan Bay Estuary Program Assesses Vulnerability and Targets Adaptation Measures |
Ecosystem Protection | Use "Soft" Shoreline Maintenance | Create marsh by planting the appropriate species – typically grasses, sedges, or rushes – in the existing substrate | |
Ecosystem Protection | Use "Soft" Shoreline Maintenance | Create dunes along backshore of beach; includes planting dune grasses and sand fencing to induce settling of wind-blown sands | |
Ecosystem Protection | Use "Soft" Shoreline Maintenance | Use natural breakwaters of oysters (or install other natural breakwaters) to dissipate wave action and protect shorelines | |
Ecosystem Protection | Use "Soft" Shoreline Maintenance | Install rock sills and other artificial breakwaters in front of tidal marshes along energetic estuarine shores | |
Ecosystem Protection | Use "Soft" Shoreline Maintenance | Restrict or prohibit development in erosion zones | |
Ecosystem Protection | Use "Soft" Shoreline Maintenance | Redefine riverine flood hazard zones to match projected expansion of flooding frequency and extent | |
Ecosystem Protection | Use "Soft" Shoreline Maintenance | Increase shoreline setbacks | |
Ecosystem Protection | Use "Soft" Shoreline Maintenance | Composite systems – incorporate elements of two or more methods (e.g., breakwater, sand fill, and planting vegetation) | |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Address the likely need to facilitate a change in thinking to enable action in the face of uncertainties that have not been traditionally considered in decision making but now should be. There will likely never be a tool to predict storm events with precision. Communities will need to develop new ways of thinking and planning, such as analyzing decisions by their robustness over a range of potential changes, employing risk management techniques, using principles that maximize minimum losses or minimize maximum losses, and other approaches for decision making under uncertainty. | |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Assemble existing data sets with information such as historic land use, planned development, topography, and location of floodplains. They are often sufficient to support a near-term conversation about how stormwater management may need to change to accommodate changes in climate. Land use has a tremendous effect on climate change impacts on stormwater management; managers can incorporate land use change maps into planning discussions. EPA's Integrated Climate and Land Use Scenarios (ICLUS) project can serve as a resource. Consider updates to data management practices to facilitate use of the best and most recent data. | |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Communicate the overlap of "short-term" infrastructure lifetimes with longer term climate changes. If better understood, it may motivate local planners to consider climate change when making infrastructure decisions. | Minnehaha, MN Creek Watershed District Assesses Stormwater Management Climate Vulnerability |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Consider how current design standards are formulated a starting point to the discussion Rather than starting a conversation with a discussion of climate change projections, understand the current design standard for stormwater management. Then, engage decision makers to seek agreement on a threshold (e.g., the community will prepare for X storm) that is informed by historic data and reflects the risk tolerance of the community (e.g., what level of damage or disruption the community can tolerate at different costs). This also entails understanding the current design standard and whether performance can be enhanced for projects in the region. | |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Demonstrate the use of dynamical downscaling on research projects at the site scale. Decision makers can use local resources for climate change data from researchers at organizations within the area, such as universities, state meteorological agencies, and other organizations that may be involved in downscaling of climate change scenarios. | |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Develop a "wish-list" of data that should be collected to improve understanding of climate changes Stormwater managers and geographic information system (GIS) staff can begin to collect this needed local data (e.g., establish and maintain more local weather gauges and monitoring stations). Partners in the community or neighboring jurisdictions may also be interested in pooling resources to develop or improve data sets. | |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Develop regional scenarios These scenarios (complete with uncertainty bounds) can be used by communities across a region, minimizing the need for individual communities to spend limited resources to determine which climate model results are appropriate to their planning needs (see SFWMD, 2011 for example of regional climate and sea level rise scenarios produced for south Florida counties and municipalities by the South Florida Water Management District). | Southeast Florida Compact Analyzes Sea Level Rise Risk |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Expand staff expertise in GIS or other data management processes (via training, new hires, or sharing of staff across the county or a group of municipalities). | |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Mine existing data sources to ensure that decisions are based on the best available data. Local decision makers are often working with old data. Simply updating storm standards to match current precipitation patterns can result in a marked improvement. Accurate historical climate information can help serve as a bridge to discussions regarding future climate projections (which are less certain and may be less readily received by skeptical planners and decision makers). | |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Routinely re-evaluate accuracy of land use maps Re-evaluating accuracy of land use maps, especially in areas experiencing rapid development, can ensure the best available data about the extent and location of impervious surfaces is used. | |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Seek partnerships that can contribute to the field of knowledge. For example, the U.S. Army Corps of Engineers has been helping communities better understand hydrologic modeling (U.S. ACE, 2015) and Federal Emergency Management Agency (FEMA) helps with preparedness planning for extreme events (FEMA, 2015). Communities can work with universities to make sure that research is applicable to local needs. Such partnerships can be fruitful when there are several crucial players working with the data to identify solutions (check local university websites for potential resources and partnering opportunities). | |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Use land use build-out models to understand the maximum allowable use This can include projections of the amount and location of development that may occur in a specified area as permitted by current land development ordinances. This information will inform stormwater managers regarding projected increases in impervious surfaces and the associated stormwater management needs. | Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Use land use build-out models to understand the maximum likely development in a region. This can help stormwater managers consider the potential needs associated with projected increases in impervious surfaces. Example resources include EPA's Integrated Climate and Land Use Scenarios (ICLUS) project and EPA's Impervious Surface Growth Model (ISGM). | Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Use resources to show historical and future trend lines To understand future climate changes, techniques that use historic data, such as analogue events or other sensitivity and threshold information in the historic record, can be used as illustrations (e.g., see the IPCC [Intergovernmental Panel on Climate Change] report Climate Change 2001: Working Group II: Impacts, Adaptation, and Vulnerability, Section 3.5. EPA's SWC and SWMM-CAT provide regional downscaled climate projections. EPA is also developing a web application for visualizing and downloading climate model output . | Manchester-by-the-Sea, Massachusetts Assesses Climate Vulnerability |
Stormwater Management and Water Quality | Use Climate & Land Use Data | Use scenarios to develop a set of possible futures, rather than seeking consensus on a particular projection. In addressing future precipitation changes in stormwater management, decision makers may need assistance determining which climate change scenarios to evaluate, where to get appropriate climate data, and assessing whether the climate projections coincide with locally driven concerns. | |
Indoor air quality | Educate and provide technical assistance | Develop an education plan around indoor air quality issues and disseminate materials in multiple languages. In particular, emphasize how 1) extreme weather events can causing heating, ventilation, and air conditioning systems to fail and result in indoor air pollution build-up, 2) backup generators can produce excess carbon monoxide, 3) floods can lead to indoor mold growth, and 4) stores can stock portable backup generators, proper ventilation materials, and other products to help prevent or lessen air quality issues. Learn more about indoor air quality tools and guides from the U.S. Environmental Protection Agency. | |
Indoor air quality | Support greener and healthier building practices | Adopt policies for internal use and for the jurisdiction that include structural and financial incentives for buildings that incorporate designs focused on reducing negative impacts on the environment through technologies and green infrastructure. Examples include green roofs, white roofs, pollution prevention measures, and more. Learn more about green building from the U.S. Green Building Council. | |
Indoor air quality | Support greener and healthier building practices | Establish minimum mandatory criteria for indoor air quality for buildings to include ventilation, moisture, and chemicals of concern. | |
Indoor air quality | Support greener and healthier building practices | Leverage and support local weatherization and retrofit programs. | |
Indoor air quality | Support greener and healthier building practices | Work with housing agencies to develop minimum building codes and healthy homes programs through the U.S. Department of Housing and Urban Development. Check with your staff attorney to see if your local government has the ability to influence the state building code or introduce policies that are more stringent. | |
Indoor air quality | Upgrade city facilities and strengthen staff understanding of indoor air quality | Ensure there are updated ventilation, dust, and mold management technologies in all new and existing municipal facilities. | |
Indoor air quality | Upgrade city facilities and strengthen staff understanding of indoor air quality | Train local government staff such as building scientists, engineers, and environmental health and safety experts on indoor air quality standards and strategies. | |
Outdoor air quality | Collaborate within jurisdictions and regionally | Participate in voluntary agreements to improve air quality and reduce emissions. Develop formal agreements to create emissions inventories and implement voluntary control measures focused on reducing emissions throughout the region. Example: 8-hour Ozone Flex Program. | |
Outdoor air quality | Improve technologies and incentivize behavior | Implement public transportation and commuter benefits program. Promote public transportation and other forms of non-single occupancy vehicle transportation (such as bicycles and buses) by offering tax-free employee transportation incentives and allowing flexible schedule and telecommuter options. | |
Outdoor air quality | Improve technologies and incentivize behavior | Implement a woodstove pollution prevention programs. These programs educate residents on the health and pollution risks associated with non-certified woodstoves and fireplace inserts. Provide financial incentives, or provide free stove upgrades to residents using non-certified options. | |
Outdoor air quality | Improve technologies and incentivize behavior | Address emissions from off-road diesel engines, equipment, and vehicle. Local governments can install retrofit technology on the off-road, heavy-duty diesel paving vehicles required in infrastructure updates. Offer incentives or vouchers for residents to swap out older machines that emit more pollutants (e.g. Louisville’s Lawn Care for Cleaner Air program). | |
Outdoor air quality | Improve technologies and incentivize behavior | Implement anti-idling efforts and improve access to parking spaces with electrification for semi-truck. Undertake anti-idling education through awareness campaigns, programs, and laws. Offer electrification stops for heavy-duty trucks and buses that provide drivers with necessary services such as heating, air conditioning, and power, without the need for engine idling. | |
Outdoor air quality | Modify land use | Adopt Smart Growth principles to encourage a mix of building types and uses with multiple transit options. To reduce emissions and pollution, plan for infill and brownfield redevelopment in urban cores that will reduce the need for development in the urban fringe and vehicle miles traveled to arrive at a destination. Create complementary transportation plans that provide a variety of options for residents to commute to work and access the community. Preserve and develop greenways and open spaces.
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Outdoor air quality | Modify land use | Improve neighborhood connectivity. Address connectivity through long-term planning, committing to accessible public transportation, and making inter-modal transportation links available so residents are able to fully commute through public transportation. Increase density near transit stations and improve parking management to provide more opportunities for people to access public transit. Participate in regional planning efforts to enable residents to travel beyond the jurisdiction with public transportation. | |
Outdoor air quality | Modify land use | Increase and improve tree canopy coverage. Develop forestry plans and implement jurisdiction-wide tree planting programs and public education efforts about trees and air quality. | Goshen, Indiana conducted a tree canopy inventory and assessment. |
Outdoor air quality | Monitor and maintain air quality | Improve the effectiveness of air monitoring and air quality emergency response. Require and promote collaboration among government agencies and external stakeholders responsible for air quality monitoring and measures. Create an Air Quality Advisory Action Plan for situations with poor air quality to warn residents and provide information on what to do. Utilize tools such as Smogwatch from the Indiana Department of Environmental Management and AIRNOW from USEPA to monitor the air quality. | |
Outdoor air quality | Repair and retrofit facilities and vehicles | Develop and implement energy plans that reduce emissions in government facilities and vehicle. Work to reduce consumption, increase the energy performance of government buildings, use vehicles not powered by gasoline or diesel fuels, implement renewable energy technologies, and ensure procurement policies prioritize low impact decisions. Complete an energy savings performance contract to upgrade facilities' energy equipment or, if a contract is not feasible yet, identify the specific make and model of a more efficient HVAC or other energy equipment to be installed when existing equipment fails. | |
Outdoor air quality | Repair and retrofit facilities and vehicles | Implement programs to help reduce emissions from airport ground equipment. Expand the use of non-gasoline or diesel fuels and low emission technologies. Participate in airport improvement programs such as the FAA Airport Improvement Program, U.S. Green Building Council Clean Airport Partnership, and more. | |
Outdoor air quality | Repair and retrofit facilities and vehicles | Retrofit car, truck, and bus fleets and add necessary infrastructure. Add diesel oxidation catalysts to trucks and buses; electrify auto fleets; install charging infrastructure throughout the jurisdiction; and participate in national or regional partnerships dedicated to reducing diesel and other emissions. | |
Waste and wastewater | Apply green infrastructure strategies | Evapotranspiration cover modification. Replacing existing vegetation with a plant mix more tolerant of long-term changes in precipitation or temperature, and/or soil addition will increase water storage capacity. | |
Waste and wastewater | Apply green infrastructure strategies | Installing drought-resistant grasses, shrubs, trees, and other deep-rooted plants will provide shading, prevent erosion, provide windbreaks and reduce fire risk. | Bloomington, Indiana Naturalized a Creek Bank to Manage Stormwater and Establish Native Plants |
Waste and wastewater | Construct new infrastructure | Designing a new containment system to be built at the surface, instead of belowground, will minimize potential contact between groundwater and targeted waste (or an engineered liner) and prevent contamination. | |
Waste and wastewater | Construct new infrastructure | Engineered structures, such as dams, will control the flow of flood-related deposition in settings where increased underwater deposition enhances remedy performance. | |
Waste and wastewater | Construct new infrastructure | Building one or more structures to retain or divert floodwater, such as vegetated berms, drainage swales, levees, dams or retention ponds will reduce the risk of damage from flooding. | American Cyanamid Superfund Site Reduced Climate Exposure, Blue Plains Wastewater Facility in Washington DC Reinforced its Facility Against Floods, New Jersey Superfund site used flood controls to adapt to higher precipitation levels |
Waste and wastewater | Construct new infrastructure | Constructing a permanent system or using portable equipment provides power generated from on-site renewable resources, as a primary or redundant power supply, that can operate independent of the utility grid when needed so the system can keep running even if power is lost. | |
Waste and wastewater | Construct new infrastructure | Building a structure (commonly of concrete, steel sheet piles or timber) to support earth masses having a vertical or near-vertical slope will hold back loose soil, rocks or debris and prevent damage to the system. | American Cyanamid Superfund Site Reduced Climate Exposure |
Waste and wastewater | Construct new infrastructure | Building extended concrete footing for ground-mounted photovoltaic systems, adding additional bracing for roof-top photovoltaic or solar thermal systems, and adding additional masts for small wind turbines or windmills will help protect the systems from damage. For utility-scale systems, safeguards to address climate change vulnerabilities may be addressed in the site-specific renewable energy feasibility study. | |
Waste and wastewater | Construct new infrastructure | Building one or more earthen structures (such as vegetated berms, vegetated swales, or stormwater ponds) or installing fabricated drainage structures (such as culverts or French drains) at vulnerable locations will prevent stormwater accumulating at higher elevations from reaching a wastewater treatment system and causing damage. | |
Waste and wastewater | Construct new infrastructure | Installing permanent mounts that allow rapid deployment of a cable system extending from the top of a unit to ground surface will hold structures in place in extreme weather events. | |
Waste and wastewater | Construct new infrastructure | Building insulated cover systems made of high-density polyethylene or concrete will protect control devices and sensitive equipment situated aboveground for long periods. and sensitive equipment situated aboveground for long periods. | |
Waste and wastewater | Improve site operations | Integrating a series of sensors linked to electronic control devices that trigger a shutdown of the system, or linked to audible/visual alarms that alert workers of the need to manually shut down the system, when specified operating or ambient parameters are exceeded will help prevent contaminants from leaving the system. | |
Waste and wastewater | Improve site operations | Using electronic systems that actively inform subscribers of extreme weather events or provide internet postings on local/regional weather and related conditions will inform managers when risk is high and they need to implement protective measures. | |
Waste and wastewater | Improve site operations | Incorporating additional subsurface parameters and sampling devices in monitoring plans will gauge the potential for re-suspension of contaminated sediment under more extreme weather/climate scenarios. | |
Waste and wastewater | Improve site operations | Integrating electronic devices that enable workers to suspend pumping or selected activities during extreme weather events, periods of impeded access or unexpected hydrologic conditions can prevent contaminants from being released from the system. | |
Waste and wastewater | Improve site operations | Electronic systems actively inform subscribers of extreme weather events or provide internet postings on local/regional weather and related conditions to help prepare the system in the event of extreme weather. | |
Waste and wastewater | Repair and retrofit facilities | Energy efficiency improvements in wastewater treatment facilities save energy, generate cost savings, reduce emissions, and improve overall energy security in the community. | Michigan City, IN Reduced Energy Use and Generated Cost Savings from Water Treatment Operation Efficiency Updates |
Waste and wastewater | Repair and retrofit facilities | Moving selected system components to positions more distant or protected from potential hazards will help decrease the risk of damage to the system. For flooding threats, this may involve moving to elevations higher than specified in the community's flood insurance study. | Iowa City, Iowa Removed a Vulnerable Wastewater Treatment Facility |
Waste and wastewater | Repair and retrofit facilities | Relocating electricity and communication lines from overhead to underground positions will prevent power outages during and after extreme weather events. | |
Waste and wastewater | Shoreline stabilization | Placing fixed structures on or along the shoreline of flowing inland water will help mitigate the effects of erosion and protect site infrastructure. Soft armor may comprise of synthetic fabrics and/or deep-rooted vegetation while hard armor may consist of riprap, gabions and segmental retaining walls. | American Cyanamid Superfund Site Reduced Climate Exposure |
Waste and wastewater | Shoreline stabilization | Installing structures will stabilize a shoreline and shield it from erosion, through "soft" techniques (such as replenishing sand and/or vegetation) or "hard" techniques (such as building a seawall or installing riprap). | Bloomington, Indiana Naturalized a Creek Bank to Manage Stormwater and Establish Native Plants |
Waste and wastewater | Site fortification | Adding additional or deeper layers of stone and/or gravel above a sand base layer will help withstand scouring forces of ice jams. | |
Waste and wastewater | Site fortification | In situ placement of amendments through techniques such as broadcasting the material in a pelletized form or using a thicker layer of coversand will accelerate material settling. | |
Waste and wastewater | Site fortification | Repairing concrete cracks, replacing pads of insufficient size or with insufficient anchorage, or integrating retaining walls along the pad perimeter will prevent future failures. | American Cyanamid Superfund Site Reduced Climate Exposure |
Waste and wastewater | Site fortification | Placing riprap adjacent to a subsurface containment barrier located along moving surface water will help minimize bank scouring that could negatively affect barrier integrity. For soil/waste capping systems vulnerable to storm surge, installing a protective vertical wall or armored base to absorb the energy of the surge to prevent cap erosion or destruction. | |
Waste and wastewater | Site fortification | Enclosing vulnerable equipment or control devices in a concrete structure will prevent exposure to outside factors that could damage it. | |
Waste and wastewater | Site fortification | Installing one or more steel bars in cement-grouted boreholes (and in some cases accompanied by cables) will secure an apparatus on a ground surface or reinforce a retaining wall against an earthen slope. | American Cyanamid Superfund Site Reduced Climate Exposure |
Waste and wastewater | Site fortification | Installing permanent mounts that allow rapid deployment of a cable system extending from the top of a unit to ground surface will hold structures in place in extreme weather events. | |
Estuaries | Preserve and create habitat | Design estuaries with dynamic boundaries and buffers. | |
Estuaries | Preserve and create habitat | Replicate habitat types in multiple areas to spread risks associated with climate change. | |
Estuaries | Preserve river banks and lake shores | Create permitting rules that constrain locations for landfills, hazardous waste dumps, mine tailings and toxic chemical facilities in areas near estuaries and waterways that flow into estuaries. | |
Estuaries | Preserve river banks and lake shores | Integrate bank and shore management into land-use planning to prevent activities that can cause erosion and drainage from entering estuaries. | |
Estuaries | Preserve river banks and lake shores | Implement a land acquisition program to purchase banks and shoreland that are damaged or prone to damage and use it for conservation. | |
Estuaries | Preserve river banks and lake shores | Implement land exchange programs where owners exchange property in the floodplain for county-owned land outside of the floodplain to implement conservation on those areas and prevent potential negative impacts from entering the estuaries. | |
Estuaries | Preserve river banks and lake shores | Manage realignment and deliberately realign engineering structures affecting rivers and estuaries. | |
Estuaries | Use "soft" shoreline maintenance | Stabilize dunes that help prevent erosion along lakeshores by planting dune grasses and building sand fencing to induce settling of wind-blown sands that flow into estuaries. | |
Estuaries | Use "soft" shoreline maintenance | Preserve or restore wetlands to help filter out pollutants and excess nutrients before they enter the estuary. | |
Estuaries | Use "soft" shoreline maintenance | Increase shoreland setbacks to provide a stretch of undeveloped land along river banks and lakeshores to prevent erosion and preserve water quality. | |
Estuaries | Use "soft" shoreline maintenance | Plant submerged aquatic vegetation (such as seagrasses) to stabilize banks and reduce erosion. | |
Estuaries | Use "soft" shoreline maintenance | Restrict or prohibit development in erosion zones. | |
Invasive species and pests | Adopt a management plan | Adopt an integrated invasive management strategy or plan that discusses the tradeoffs associated with managing for different species. | |
Invasive species and pests | Adopt a management plan | Monitor the known locations and invasives identified in the plan. | |
Invasive species and pests | Contact your state department of natural resources | Local governments do not always have the regulatory authority or knowledge to deal with invasive species. The department of natural resources can prescribe or implement proper treatment. Check with your state’s department before implementing any measures. | |
Invasive species and pests | Identify and monitor invasive species | Identify invasive species in your area by contacting your state’s department of natural resources, a local university, or local invasive species management group. | |
Invasive species and pests | Identify and monitor invasive species | Conduct an assessment with the assistance of your state’s department of natural resources, a local university, or local invasive species management group. An assessment can refer to a number of activities to gather and evaluate information on the nature, quality, ability, extent, or significance of the invasive species. Learn more from the U.S. Fish and Wildlife Service’s guide on assessments for invasive plants. | |
Invasive species and pests | Identify and monitor invasive species | Monitor known locations of invasives within your jurisdiction. By knowing where the invasives are, it can help identify what conditions allow them to be present, where they could spread, and what management could be done to prevent them. | |
Invasive species and pests | Reduce the presence of invasive species | Develop programs to regularly apply strategies to remove and control non-native plants in conjunction with organizations or state/federal government departments responsible for invasive management. | Knox County, Indiana banned the distribution of invasive plants in their county |
Invasive species and pests | Reduce the presence of invasive species | Offer an invasive species education program to inform residents about plants that are invasive but are still sold commercially. Check with local environmental organizations to find websites and handouts that list management strategies for invasive species present in your area. | |
Lakes, rivers, and streams | Identify waterways available for improved ecological management | The Indiana Department of Environmental Management (IDEM) develops Indiana’s 303(d) List of Impaired Waters (the “303(d) list”) as part of the state's Integrated Water Monitoring and Assessment Report (IR), which is submitted to the USEPA every two years in accordance with the Clean Water Act (CWA). Local governments can support the removal of stream segments from the 303(d) list by identifying and contributing to restoration and protection initiatives and plans. Other states will have a 303(d) list, which can be found under the appropriate agency or from the USEPA's water quality assessment information. | |
Lakes, rivers, and streams | Maintain water quality and availability | Build a combined sewer overflow tunnel to receive and store the overflow from a combined sewer system during heavy precipitation events. | |
Lakes, rivers, and streams | Maintain water quality and availability | Develop adaptive stormwater management practices to prevent contaminants from entering the water system (e.g. Green stormwater infrastructure designed to catch and manage stormwater on-site – where it falls, street cleanings to clear storm drains, and more). | |
Lakes, rivers, and streams | Maintain water quality and availability | Develop a watershed-wide approach to water quality management with neighboring jurisdictions. | |
Lakes, rivers, and streams | Maintain water quality and availability | Identify and map the community's green spaces, which function to protect water quality. Green spaces can include public and private parks and forests, green infrastructure (e.g., rain gardens and bioswales), undeveloped green spaces, and urban gardens. Look for areas where greenery could be planted and makes plans to plant it. Pay attention to the diversity, composition, connectivity, and equitable distribution of green spaces across the community. | |
Lakes, rivers, and streams | Maintain water quality and availability | Implement an educational campaign for farmers and landowners to promote the responsible use of fertilizers, herbicides, and pesticides. Offer community education on the correct application of fertilizers, herbicides, and pesticides. Include information on preventing polluted runoff by maintaining rainwater on properties via native plants’ deeper root system and other water-retention mechanisms. Work through local lawn-care companies, partner groups, and include specific outreach to farmer networks. | |
Lakes, rivers, and streams | Maintain water quality and availability | Maintain, restore, and protect wetlands. Healthy wetlands support exceptionally robust ecosystems that protect and improve water quality, provide fish and wildlife habitats, store floodwaters, and maintain surface water flow during dry periods. Taking steps to understand your community’s existing wetlands and expand or improve their functionality provides multiple community benefits. | Lake County, Illinois created a mapping tool for the wetlands in their jurisdiction |
Lakes, rivers, and streams | Preserve habitat | Adopt protections of important zones (e.g., riverbanks, lakeshores) and critical habitats. Note that the locations of these areas change with the seasons, and as the climate changes. | |
Lakes, rivers, and streams | Preserve habitat | Remove barriers to migration and ecosystem diversity, such as dams, to allow species to survive and reproduce. | Corydon, IN removed two dams to assist their river habitats |
Lakes, rivers, and streams | Preserve habitat | Restore riverbanks and floodplains to help reduce erosion and buffer extreme flooding while creating seasonal habitat for wetland creatures. | |
Lakes, rivers, and streams | Preserve habitat | Reconnect wetlands and freshwater estuaries to restore water movement, improve filtration, and provide shelter and food for aquatic organisms. | |
Lakes, rivers, and streams | Use "soft" shoreline maintenance | Plant submerged aquatic vegetation to stabilize sediment, reduce erosion, absorb excess nutrients, and offer food and shelter to wildlife and aquatic organisms. | |
Lakes, rivers, and streams | Use "soft" shoreline maintenance | Use natural breakwaters on the coasts of lakes to reduce erosion due to waves. | |
Maintaining biodiversity | Adopt controls of listed invasive species | Monitor known locations of invasive plants. | |
Maintaining biodiversity | Adopt controls of listed invasive species | Adopt an invasive plant management strategy or plan that discusses the tradeoffs associated with managing different native and non-native species. | Knox County, Indiana banned the distribution of invasive plants in their county |
Maintaining biodiversity | Develop conservation and restoration plans to maintain natural resource acreage, restore degraded vegetation and habitats, and preserve restored areas | Adopt a habitat connectivity plan or specify habitat connectivity goals and initiatives in a related conservation plan. | |
Maintaining biodiversity | Develop conservation and restoration plans to maintain natural resource acreage, restore degraded vegetation and habitats, and preserve restored areas | Implement zoning ordinances to support habitat connectivity goals. | |
Maintaining biodiversity | Develop conservation and restoration plans to maintain natural resource acreage, restore degraded vegetation and habitats, and preserve restored areas | Designate vegetation protection areas. | |
Maintaining biodiversity | Develop conservation and restoration plans to maintain natural resource acreage, restore degraded vegetation and habitats, and preserve restored areas | Offer incentives for meeting the requirements that increase when developers exceed the requirements. Vegetation protection areas should have one or more zones that are fully protected from development. | |
Maintaining biodiversity | Develop conservation and restoration plans to maintain natural resource acreage, restore degraded vegetation and habitats, and preserve restored areas | Implement an invasive species education program. | |
Maintaining biodiversity | Identify and protect ecologically significant ("critical") areas such as nursery grounds, spawning grounds, and areas of high species diversity | Identify threatened or endangered flora and fauna and the habitat of threatened or endangered species. Local governments can work with their state department of natural resources to identify threatened and endangered species. | |
Maintaining biodiversity | Identify and protect ecologically significant ("critical") areas such as nursery grounds, spawning grounds, and areas of high species diversity | Consider the species and their habitat in all planning and land-use decisions with an emphasis on protection and conservation. | |
Maintaining biodiversity | Identify and protect ecologically significant ("critical") areas such as nursery grounds, spawning grounds, and areas of high species diversity | Adopt policies to protect and maintain significant habitat existence, and develop plans to expand these locations or replicate these habitat types. | |
Maintaining biodiversity | Integrate habitat protection strategies into zoning strategies into zoning codes, comprehensive plans, and ordinances | Require new developments to complete a habitat impact analysis and mitigate the habitat that they damage or destroy. | |
Maintaining biodiversity | Integrate habitat protection strategies into zoning strategies into zoning codes, comprehensive plans, and ordinances | Limit Planned Unit Developments (PUDs) near sensitive natural areas. | |
Maintaining biodiversity | Integrate habitat protection strategies into zoning strategies into zoning codes, comprehensive plans, and ordinances | Restrict septic systems near areas with high biodiversity or critical habitat. | |
Maintaining biodiversity | Integrate habitat protection strategies into zoning strategies into zoning codes, comprehensive plans, and ordinances | Use setbacks, an on-site building restriction to set the minimum distance a building may be from a designated area, to protect sensitive habitats. | |
Maintaining biodiversity | Integrate habitat protection strategies into zoning strategies into zoning codes, comprehensive plans, and ordinances | Allow for landowners to sell their development rights to the local government to permanently protect the land. This strategy is called a transfer of development rights or purchase of development rights. | |
Maintaining biodiversity | Promote habitat restoration through native landscaping and conservation on public and private property | Make a formal commitment to use native plants in new public or publicly-supported landscaping projects and convert existing non-native landscapes on public property. | |
Maintaining biodiversity | Promote habitat restoration through native landscaping and conservation on public and private property | Conduct educational outreach on the importance of native landscaping and healthy habitats to support sensitive species. | |
Maintaining biodiversity | Promote habitat restoration through native landscaping and conservation on public and private property | Support private-sector or residential habitat restoration projects. | |
Maintaining biodiversity | Use mapping assessments to identify what exists in the area to help future planning | If no current map exists, creating maps for categories such as total existing vegetated area, primary vegetation types, native plants, degraded vegetation, and degraded aquatic ecosystems. These maps can be created with GIS and then used as a baseline for conservation planning. | Lake County, Illinois created a mapping tool for the wetlands in their jurisdiction |
Parks, trees, and forests | Encourage continuous blocks of forests and fragmentation | Run programs and/or integrate projects into existing practices that support the protection and/or expansion of continuous blocks of forests. | |
Parks, trees, and forests | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Conduct a tree canopy assessment and map tree locations. | Goshen, Indiana conducted a tree canopy assessment |
Parks, trees, and forests | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Complete a strategy or formal plan to continue or fortify measurement, maintenance, and planting initiatives. | |
Parks, trees, and forests | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Implement pathogen monitoring and management initiatives. | |
Parks, trees, and forests | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Select and recommend tree plantings based on native species listed as appropriate for anticipated climatic changes. | |
Parks, trees, and forests | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Identify and implement reforestation opportunities. | |
Parks, trees, and forests | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Adopt tree and or forest protection policies. | |
Parks, trees, and forests | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Work with developers to lessen tree removal during new construction. | |
Parks, trees, and forests | Pass a tree canopy protection ordinance | An ideal ordinance would cover trees on public and private property, and offer incentives for private property development that exceeds an established minimum tree canopy. | |
Parks, trees, and forests | Preserve habitat | Expand the planning horizons of land use planning to incorporate longer climate predictions. | |
Parks, trees, and forests | Preserve habitat | Purchase development rights or property rights. | |
Parks, trees, and forests | Preserve habitat | Adopt protections of important zones and critical habitats as the locations of these areas change with climate. | |
Parks, trees, and forests | Preserve habitat | Connect landscapes with natural corridors to enable migrations. | |
Parks, trees, and forests | Preserve habitat | Adopt a habitat connectivity plan. | |
Parks, trees, and forests | Preserve habitat | Implement zoning ordinances to support habitat connectivity goals. | |
Parks, trees, and forests | Preserve habitat | Integrate habitat protection strategies into zoning codes, comprehensive plans, and ordinances. | |
Parks, trees, and forests | Preserve habitat | Require new developments to complete a habitat impact analysis and mitigate the loss of habitat that they damage or destroy. | |
Parks, trees, and forests | Preserve habitat | Limit Planned Unit Developments (PUDs) near sensitive natural areas. | |
Parks, trees, and forests | Preserve habitat | Restrict septic systems near areas with high biodiversity or critical habitat. | |
Parks, trees, and forests | Preserve habitat | Use setbacks to protect sensitive habitats. | |
Parks, trees, and forests | Preserve habitat | Allow for landowners to sell their development rights to the local government to permanently protect the land through a purchase of development rights. | |
Parks, trees, and forests | Set minimum green space thresholds | Determining a set amount of green space in the area will help limit the effects of extreme heat, flooding, water quality, and more. | Goshen, Indiana conducted a tree canopy assessment |
Urban ecosystems | Identify natural resource preservation opportunities | Examples can include rainwater collection and reuse opportunities, maintaining and increasing urban green infrastructure, and more. These efforts help improve air quality, water quality, and provide benefits for wildlife in urban areas. | |
Urban ecosystems | Maintain water quality and availability | Consider climate change scenarios into water supply system planning and maintenance. | |
Urban ecosystems | Maintain water quality and availability | Manage water demand (through water reuse, recycling, and rainwater harvesting, for example). | |
Urban ecosystems | Maintain water quality and availability | Prevent or limit groundwater extraction from shallow aquifers. | |
Urban ecosystems | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Conduct a tree canopy assessment and map tree locations. | Goshen, Indiana conducted a tree canopy assessment |
Urban ecosystems | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Complete a strategy or formal plan to continue or fortify measurement, maintenance, and planting initiatives. | |
Urban ecosystems | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Implement pathogen monitoring and management initiatives. | |
Urban ecosystems | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Select and recommend tree plantings based on native species listed as appropriate for anticipated climatic changes. | |
Urban ecosystems | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Identify and implement reforestation opportunities. | |
Urban ecosystems | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Adopt tree and or forest protection policies. | |
Urban ecosystems | Measure, maintain, protect, and expand the jurisdiction's tree canopy | Work with developers to lessen tree removal during new construction. | |
Urban ecosystems | Preserve habitat | Expand the planning horizons of land use planning to incorporate longer climate predictions. | |
Urban ecosystems | Preserve habitat | Purchase development rights or property rights. | |
Urban ecosystems | Preserve habitat | Adopt protections of important zones and critical habitats as the locations of these areas change with climate. | |
Urban ecosystems | Preserve habitat | Connect landscapes with natural corridors to enable migrations. | |
Urban ecosystems | Preserve habitat | Adopt a habitat connectivity plan. | |
Urban ecosystems | Preserve habitat | Implement zoning ordinances to support habitat connectivity goals. | |
Urban ecosystems | Preserve habitat | Integrate habitat protection strategies into zoning codes, comprehensive plans, and ordinances. | |
Urban ecosystems | Preserve habitat | Require new developments to complete a habitat impact analysis and mitigate the loss of habitat that they damage or destroy. | |
Urban ecosystems | Preserve habitat | Limit Planned Unit Developments (PUDs) near sensitive natural areas. | |
Urban ecosystems | Preserve habitat | Restrict septic systems near areas with high biodiversity or critical habitat. | |
Urban ecosystems | Preserve habitat | Use setbacks to protect sensitive habitats. | |
Urban ecosystems | Preserve habitat | Allow for landowners to sell their development rights to the local government to permanently protect the land through a purchase of development rights. | |
Wetlands | Develop a watershed health index | A watershed health index helps compile measurable, comparable, and consistent ecological information that summarized the primary attributes of the watershed’s condition. The six essential attributes are landscape condition, habitat, hydrology, geomorphology, water quality, and biological condition. Additional values can be used depending on the values of the community. The information can be input into GIS as a visual tool as well. This information can be used to plan for wetland protection, restoration, and creation. | Lake County, Illinois created a mapping tool for the wetlands in their jurisdiction |
Wetlands | Maintain and restore wetlands | Create a regional sediment management (RSM) plan. | |
Wetlands | Maintain and restore wetlands | Develop adaptive stormwater management practices such as promoting natural buffers and adequate culvert sizing. | |
Wetlands | Maintain and restore wetlands | Establish rolling easements that ensure wetlands can expand as buildings, roads, and other structures are removed. | |
Wetlands | Maintain and restore wetlands | Incorporate wetland protection into infrastructure planning (e.g., transportation planning, sewer utilities) policies. | |
Wetlands | Maintain and restore wetlands | Ensure that the proper zoning is in place to protect wetlands and seasonal ponds. | |
Wetlands | Maintain and restore wetlands | Adopt an environmental protection overlay that includes wetlands and seasonal ponds. | |
Wetlands | Maintain and restore wetlands | Require that the elimination of a wetland prompts the construction or reconstruction of another wetland within the same watershed. | |
Wetlands | Maintain and restore wetlands | Install new wetlands and restore wetlands that were drained for agriculture or development. | |
Alternative and renewable energy sources | Provide financing tools for renewable energy sources | Take advantage of your state’s Property Assessed Clean Energy (PACE) program (see if your state has one), which can allow local governments to offer the residential and/or commercial sectors renewable energy, energy efficiency, and water conservation upgrades at no or little up-front cost (installations are paid back through property tax bills or other annual property assessment). PACE programs must be enacted by the state legislature. | |
Alternative and renewable energy sources | Provide financing tools for renewable energy sources | Implement a Solarize program, which diversifies energy supply at city facilities and provides a group-buy discount for residents. | |
Alternative and renewable energy sources | Provide financing tools for renewable energy sources | Adopt inclusive financing, a tool that allows residents to sign up for renewable energy installation while a utility pays for the installation. The resident then uses part of the savings to pay back the utility over time. | |
Alternative and renewable energy sources | Remove policy barriers for energy efficiency and clean energy | Work with SolSmart, a program funded by the U.S. Department of Energy, to understand which policies could be adjusted and obtain a SolSmart designation. | |
Alternative and renewable energy sources | Remove policy barriers for energy efficiency and clean energy | Establish working groups to review city, town, and county policies that could act as barriers to energy efficiency and clean energy. | |
Alternative and renewable energy sources | Upgrade city operations to support on-site renewable energy installations, such as solar | Installing on-site renewable energy can increase grid resilience to climate impacts and potentially save on energy bills. | Bloomington, Indiana diversified its energy supply with residential and municipal solar, and Vigo County, Indiana installed solar power on its Solid Waste District Management building |
Alternative and renewable energy sources | Upgrade city operations to support on-site renewable energy installations, such as solar | Local governments in Indiana can use a guaranteed energy savings contract (GESC) to fund the installation. A GESC allows the local government to start the installation without a large upfront cost and pay off the cost over a period of time with the energy savings. | |
Alternative and renewable energy sources | Use financial and structural incentives or mandates to encourage renewable energy in the community | Reduce permitting fees, minimize inspections, and/or simplify permitting processes for renewable energy systems. | |
Alternative and renewable energy sources | Use financial and structural incentives or mandates to encourage renewable energy in the community | Align local permitting processes with the permitting policies of others in the region to ease the burden on contractors and installers of renewable energy. | |
Alternative and renewable energy sources | Use financial and structural incentives or mandates to encourage renewable energy in the community | Provide an expedited review process for renewable energy development. | |
Alternative and renewable energy sources | Use financial and structural incentives or mandates to encourage renewable energy in the community | Create property tax exemptions for renewable energy systems to prevent the taxable property value from increasing with the installation of a renewable energy system. | |
Alternative and renewable energy sources | Use financial and structural incentives or mandates to encourage renewable energy in the community | Provide assistance programs to reduce the upfront burden of renewable energy costs for vulnerable populations. | Bloomington, Indiana diversified its energy supply with residential and municipal solar |
Distribution mechanisms | Ensure 100% coverage of population for electricity and other utility services | Cities are increasingly being evaluated on their energy access, power surety, and reliability performance. Some communities have not achieved 100% coverage and are being asked to provide roadmaps for achieving that goal. Learn more from LEED for Cities. | |
Distribution mechanisms | Work internally with the local utility to increase power supply preparedness and decrease the risk of power outages during extreme weather events | Implement comprehensive power supply preparedness initiatives, track their success, and ensure that the programs are focused, at least in part, on the most vulnerable parts of the community. | |
Distribution mechanisms | Work internally with the local utility to increase power supply preparedness and decrease the risk of power outages during extreme weather events | Make weatherization and/or energy efficiency initiatives commonplace in building renovations and new construction, and ensure the community is served by multiple fuel and generation sources. | |
Distribution mechanisms | Work internally with the local utility to increase power supply preparedness and decrease the risk of power outages during extreme weather events | Work with the local utility to ensure it has undergone system hardening efforts to reduce the occurrence and duration of power outages and has a plan in place to maintain existing systems. | |
Distribution mechanisms | Work internally with the local utility to increase power supply preparedness and decrease the risk of power outages during extreme weather events | Work with community-based organizations to assess community plans to financially assist vulnerable populations during or after extreme weather or related events. | |
Distribution mechanisms | Work internally with the local utility to increase power supply preparedness and decrease the risk of power outages during extreme weather events | Identify the community’s critical loads or emergency facilities that require backup power. | |
Distribution mechanisms | Work internally with the local utility to increase power supply preparedness and decrease the risk of power outages during extreme weather events | Monitor the energy system continuously and record when and for how long interruptions occur. | |
Distribution mechanisms | Use a diversity of power systems to supply power to the grid | Determine costs and technologies for resilient power systems. | |
Distribution mechanisms | Use a diversity of power systems to supply power to the grid | Identify the technology, such as solar and battery storage, locations where they could be installed, and get price estimates. | |
Distribution mechanisms | Work with local utilities and state policy makers to encourage grid harmonization strategies | Use grid harmonization strategies – building systems and processes that are responsive to grid capacity and stability – to make the electric grid more resilient. Some examples are infrastructure and programs for dynamic pricing, demand response, net metering, and interconnection policies. | |
Distribution mechanisms | Work with the local utility and with community members to diversify energy distribution mechanisms | Add energy distribution technologies that generate electricity near or where that energy is used. In the residential sector, common distributed energy systems are emergency back-up generators, solar panels, and small wind turbines. Common distributed generation resources in the commercial and industrial sectors include combined heat and power systems, geothermal energy heating and cooling systems, municipal solid waste incineration, hydropower, fuel cells, back-up generators, and solar and wind. | |
Distribution mechanisms | Work with the local utility and with community members to diversify energy distribution mechanisms | Consider and construct a district energy system, which uses a network of underground pipes to pump steam, hot water, and/or chilled water to multiple buildings in a defined geographic area. Providing heating and cooling from a central plant that is close by requires less fuel and displaces the need to install separate heating, cooling, and hot water systems in each building. | Ball State University installed a geothermal energy system to replace its coal-fired boilers |
Energy efficiency | Encourage data transparency | Adopt an energy benchmarking ordinance for jurisdictionally-owned and private buildings to allow prospective and current building owners, typically above 50,000 square feet, to compare the energy use of buildings of similar sizes. The data transparency can create an incentive for buildings with higher energy usage to implement energy efficiency upgrades to be more in line with the others. See a database of communities that have adopted benchmarking ordinances. | |
Energy efficiency | Encourage data transparency | Require or encourage third party certification on government-owned or privately-owned building renovations and/or new construction to promote awareness and visibility of efficiency strategies while also encouraging the buildings to reach higher certification levels. | |
Energy efficiency | Provide financing tools | Take advantage of your state’s Property Assessed Clean Energy (PACE) program (see if your state has one), which can allow local governments to offer the residential and/or commercial sectors renewable energy, energy efficiency, and water conservation upgrades at no or little up-front cost (installations are paid back through property tax bills or other annual property assessment). PACE programs must be enacted by the state legislature. | |
Energy efficiency | Raise revenue for energy efficiency operations | Local governments served by a private utility can implement or increase utility franchise fees on utility bills and direct the revenue towards energy efficiency initiatives. Fees can either be a flat rate or as a percentage of the bill. | |
Energy efficiency | Upgrade city operations | Implement energy efficiency measures on all city facilities through budget-neutral energy savings performance contracts. Note: Local governments in Indiana can use a guaranteed energy savings contract (GESC) to fund the installation. A GESC allows the local government to start the installation without a large upfront cost and payoff the cost over a period of time with the energy savings. | Michigan City, Indiana reduced their energy use and saved costs by improving the efficiency of their wastewater treatment plant |
Energy efficiency | Upgrade city operations | Replace all public lighting with LEDs through local laws or incentives. | Indianapolis, Indiana converted their street lamps to LEDs |
Energy efficiency | Upgrade city operations | Update water and wastewater pumps to the most efficient technology available. | Michigan City, Indiana reduced their energy use and saved costs by improving the efficiency of their wastewater treatment plant |
Energy efficiency | Use financial structures or mandates | Provide tax credits for buildings that implement energy efficiency measures. | |
Energy efficiency | Use financial structures or mandates | Reduce permitting fees and/or simplify permitting processes for energy efficiency upgrades. | |
Energy efficiency | Use financial structures or mandates | Require energy efficiency in rental licensing. | |
Energy efficiency | Use financial structures or mandates | Adopt the most energy-efficient building code allowed by state law. | |
Energy efficiency | Use financial structures or mandates | Mandate that all applicable zoning standards related to efficiency apply to all types of dwellings and establishments. | |
Energy efficiency | Use financial structures or mandates | Address gaps in other utility assistance programs across your jurisdiction by financially assisting underserved communities and by providing energy efficiency education and upgrades. | |
Energy efficiency | Work with developers, building owners and managers to help them reduce their energy use | Launch a 2030 District, or an organization that facilitates energy efficiency, water, and greenhouse gas emissions goal setting and achievement among a pre-identified group of buildings within a community. | |
Food distribution and access | Increase local food purchasing and enhance access | Adopt one or more ordinance, resolution, or policy that supports the procurement of local food. | |
Food distribution and access | Increase local food purchasing and enhance access | Utilize the Good Food Purchasing Program to have more transparent and equitable food systems. | |
Food distribution and access | Increase local food purchasing and enhance access | Identify food deserts – parts of a community where it is difficult to find and/or afford good-quality vegetables and other food – and develop and enact plans to reduce them. | |
Food distribution and access | Increase local food purchasing and enhance access | Establish appropriate food prices for all income levels. | |
Food distribution and access | Increase understanding of community food sources and the food distribution system | Develop a list of companies and farmers that provide food to locations within the jurisdiction and exported to other communities. The list should include contact information and food types provided. | |
Food distribution and access | Increase understanding of community food sources and the food distribution system | Develop a plan in conjunction with partner agencies and the community to address local and global food supply emergencies. The plan should be shared with the public and surrounding governments. | |
Food distribution and access | Increase understanding of community food sources and the food distribution system | Collect and distribute food access data and to determine which areas are the most affected by food insecurity. | |
Food distribution and access | Increase understanding of community food sources and the food distribution system | Implement policies and programs that support a diversity of food outlets (supermarkets, farmers markets, farm stands, etc.). | |
Food distribution and access | Increase understanding of community food sources and the food distribution system | Review zoning codes and other land use regulations and eliminate or reduce policies that restrict urban food production. | |
Rural agriculture | Protect rural farmland | Set metrics-based goals to protect farmland, including land that produces locally-sold agricultural products and a diversity of agricultural products. | |
Rural agriculture | Protect rural farmland | Adopt ordinances, zoning updates, or other mechanisms to support farmland preservation and food production from future development. | |
Rural agriculture | Protect rural farmland | Review land use regulations and eliminate or reduce policies that restrict food production. | |
Rural agriculture | Understand rural agriculture using maps | Create or find existing maps that document prime farmland, unique farmland, and farmland of local importance. This information can be used in future planning decisions. Work with your local soil and water conservation district or your local USDA Natural Resources Conservation Service office for additional information on agricultural land, silvicultural land, and mapping. | |
Urban gardens and farms | Protect urban farmland | Set metrics-based goals to protect urban farming, including buildings and gardens that produce locally-sold agricultural products and a diversity of agricultural products. | |
Urban gardens and farms | Protect urban farmland | Adopt ordinances, zoning updates, or other mechanisms to support urban farming preservation and urban food production from future development. Examples could include: making gardening a primary use and farming a conditional/permitted use on city land, reducing barriers to animal keeping, removing restrictions that impede composting, allowing hours of sales of produce grown on-site, and allowing structures such as hoop houses and tunnels. | |
Urban gardens and farms | Protect urban farmland | Review zoning codes and other land use regulations and eliminate or reduce policies that restrict urban food production. | |
Urban gardens and farms | Provide alternative areas for farming | Facilitate rooftop farming, vertical farming, and other urban farming practices that can create opportunities for food access in the area instead of relying on importing food. | |
Urban gardens and farms | Provide alternative areas for farming | Create incentives for buildings and developments to incorporate urban gardens and farms. | |
Disaster preparedness and emergency response | Conduct community preparedness outreach | Conduct a whole community preparedness approach and work with multiple community partners to extend reach and acceptance. Ensure that the outreach accommodates traditionally underserved populations and is accessible across different languages and abilities. Collect feedback at least annually and update the plan accordingly. | |
Disaster preparedness and emergency response | Conduct community preparedness outreach | Educate residents about steps they can take to improve personal emergency preparedness. | |
Disaster preparedness and emergency response | Conduct community preparedness outreach | Update the outreach plan accordingly with the intent of reaching and educating the most residents. Partner with local groups to increase outreach. | |
Disaster preparedness and emergency response | Design and launch a community volunteer response program | Hold regular response trainings for new volunteers and refresher trainings for existing volunteers. Test the plan of action for each potential climate hazard annually through emergency response drills and update the plan accordingly. Conduct additional outreach to encourage more community members to volunteer. These programs often exist at a county level so communicate with the county government to determine what currently exists and identify needed improvements. | |
Disaster preparedness and emergency response | Identify and protect critical infrastructure and vulnerable neighborhoods | Create a list and map of all critical infrastructure and determine if any of it is in a flood-prone area or is susceptible to extreme heat. | |
Disaster preparedness and emergency response | Identify and protect critical infrastructure and vulnerable neighborhoods | Review FEMA’s Flood Insurance Rate Map to identify possible emergency areas. | |
Disaster preparedness and emergency response | Identify and protect critical infrastructure and vulnerable neighborhoods | Create a map that identifies both critical assets (e.g., hospitals, fire stations, shelters, and distribution centers) and transportation routes between them. Include identification of neighborhoods and routes that are likely to be inundated under various scenarios to help the local government evaluate how to get resources to those areas. In the case of regional events, plans should specify the procurement of supplies from outside the region via reliable transportation routes. | |
Disaster preparedness and emergency response | Identify and protect critical infrastructure and vulnerable neighborhoods | Reinforce any critical infrastructure that is in a flood-prone area. | |
Disaster preparedness and emergency response | Identify and protect critical infrastructure and vulnerable neighborhoods | Identify detours to reach critical infrastructure during a hazardous event and have a plan to notify staff and travelers when the detours are in place. | |
Disaster preparedness and emergency response | Identify and protect critical infrastructure and vulnerable neighborhoods | Upgrade critical infrastructure to ensure higher temperatures will not substantially degrade or prevent their functionality. | |
Disaster preparedness and emergency response | Identify and protect critical infrastructure and vulnerable neighborhoods | Involve critical facility and emergency infrastructure managers in climate change preparedness and management. | |
Disaster preparedness and emergency response | Identify the strengths and weaknesses of internal and external communication networks, and fortify the system | Routinely test the communication systems. | |
Disaster preparedness and emergency response | Identify the strengths and weaknesses of internal and external communication networks, and fortify the system | Create a public communications plan and an internal and partner agency communications plan for when traditional communication and internet/data-based networks fail and when radio waves become overwhelmed. Ensure that the plans establish communication priorities during emergencies and are tested and updated annually. | |
Disaster preparedness and emergency response | Identify the strengths and weaknesses of internal and external communication networks, and fortify the system | Adopt post-event recovery policies and procedures to repair communications services. Regularly update the policies and procedures, and ensure they are appropriate for reaching diverse and vulnerable populations, including residents for whom English is not their first language. | |
Disaster preparedness and emergency response | Identify the strengths and weaknesses of internal and external communication networks, and fortify the system | Assess communications needs, and develop and distribute a complete list of local, state, and federal agency contacts that could be needed before, during, and after an extreme weather event. Updates the list annually, at minimum. | |
Disaster preparedness and emergency response | Identify the strengths and weaknesses of internal and external communication networks, and fortify the system | Integrate these actions into a multi-hazard mitigation plan. | |
Disaster preparedness and emergency response | Work with the county government to develop and adopt a multi-hazard mitigation plan | Ensure the multi-hazard mitigation plan addresses emergency response needs during floods, heatwaves, droughts, low-head dam spills, and other climate-related events. | |
Disaster preparedness and emergency response | Work with the county government to develop and adopt a multi-hazard mitigation plan | Create a list of possible hazardous events and ensure the plan adequately and equitably protects would-be affected areas and residents. | |
Disaster preparedness and emergency response | Work with the county government to develop and adopt a multi-hazard mitigation plan | Include transportation and logistics for critical resources, a map identifying critical facilities and transportation between them, neighborhoods and routes likely to be inundated and how to get resources to them, and how to get supplies from outside of the region. Local governments often tailor the framework of their state’s plan to their jurisdiction. | |
Greenhouse gas inventories and mitigation | Conduct a greenhouse gas inventory and set goals to reduce emissions | Complete a community-wide inventory and a local government operations inventory. | |
Greenhouse gas inventories and mitigation | Conduct a greenhouse gas inventory and set goals to reduce emissions | Document all assumptions made and steps taken to complete the inventory. | |
Greenhouse gas inventories and mitigation | Conduct a greenhouse gas inventory and set goals to reduce emissions | Set a community-wide greenhouse gas emissions reduction goal and a local government operations emissions reduction goal. | |
Greenhouse gas inventories and mitigation | Conduct a greenhouse gas inventory and set goals to reduce emissions | Identify specific actions the local government can take to achieve that goal by reducing internal operations emissions and the emissions occurring across the community. These actions are often used to create a climate action plan. | |
Greenhouse gas inventories and mitigation | Conduct a greenhouse gas inventory and set goals to reduce emissions | Develop education resources and/or a communications strategy to encourage residents to take personal responsibility for reducing their own emissions footprints. | |
Resilience planning | Develop model procedures | Ensure onsite managers of critical facilities and emergency infrastructure employ best practices in the event of flooding, power outages, extreme heat, or other climate-related emergencies. | |
Resilience planning | Develop model procedures | Test and update procedures annually. | |
Resilience planning | Integrate resilience into other governmental planning | Integrate funding for resilience strategies and actions into the local government’s financial planning. | |
Resilience planning | Integrate resilience into other governmental planning | Integrate adaptation and resilience actions into long-term plans. | |
Resilience planning | Integrate resilience into other governmental planning | Work with administrative offices in local government to ensure resilience metrics are captured across all departments using similar terminology. | |
Resilience planning | Integrate resilience into other governmental planning | Implement adaptation and resilience actions and strategies from the resilience and sustainability plans. | |
Resilience planning | Set adaptation and mitigation goals, and develop a resilience plan for the community | Using a previously completed vulnerability assessment, and including participation from residents, businesses, and community organizations, identify strategies and actions the local government and the community can complete to increase community resilience. Compile the goals into a planning document. This type of planning document often contains an acknowledgment by the local government of known climate risks and describes the impacts and adaptation actions relevant to protecting the community’s most vulnerable populations. | |
Risk and vulnerability assessments | Identify and understand risks and vulnerabilities | Use maps, historical data, projections, and advice from experts to understand your community’s climate exposure and identify potential threats. | |
Risk and vulnerability assessments | Identify and understand risks and vulnerabilities | Understand how extreme weather events and climate change impacts are likely to affect your community’s residents, infrastructure, the economy, and the natural environment. | |
Risk and vulnerability assessments | Identify and understand risks and vulnerabilities | Identify an existing economic development board or establish a task force of residents, business owners, and industry representatives to evaluate how the climate change vulnerabilities specific to its community will impact the local economy. Develop a report or other way to communicate findings to the community. | |
Risk and vulnerability assessments | Identify and understand risks and vulnerabilities | Pay close attention to the most exposed and affected areas and people in the community to determine their risks. | |
Risk and vulnerability assessments | Identify and understand risks and vulnerabilities | Estimate or rank the probability of occurrence of extreme events. | |
Risk and vulnerability assessments | Release a vulnerability assessment and use it to develop a climate resilience plan | Release a draft vulnerability assessment to the public to ensure that it resonates with what residents know about their community. | |
Risk and vulnerability assessments | Release a vulnerability assessment and use it to develop a climate resilience plan | Use the vulnerability assessment to help draft a climate resilience plan (See Resilience Planning above.) | |
Risk and vulnerability assessments | Understand what your community is already doing to increase its resilience to risks and vulnerabilities | Indiana communities can complete the Hoosier Resilience Index’s tailored Readiness Assessment. Midwestern communities from other states can work through the Hoosier Resilience Index’s generic Readiness Assessment. | |
Risk and vulnerability assessments | Understand what your community is already doing to increase its resilience to risks and vulnerabilities | Complete the USEPA’s Flood Resilience Checklist. | |
Risk and vulnerability assessments | Understand what your community is already doing to increase its resilience to risks and vulnerabilities | Participate in the National Flood Insurance Program Community Rating System. | |
State and local policies | Adopt local ordinances and policies to ensure resilience | Visit the Sustainable Development Code website to see a list of best practices for ordinances, zoning codes, and comprehensive plans. See strategies and example policy language for seven categories: environmental health and natural resources, natural hazards, land use and community character, mobility and transportation, community, healthy neighborhoods and food security, and energy. | |
State and local policies | Form a working group to explore policies and programs that could address your community's resilience needs | Include local policymakers in the conversation early on to get their buy-in and expertise. | |
State and local policies | Form a working group to explore policies and programs that could address your community's resilience needs | Ensure that the voices of all impacted communities are included in the conversation. | |
State and local policies | Form a working group to explore policies and programs that could address your community's resilience needs | Establish partnerships with organizations and businesses to support your community’s resilience needs. | |
State and local policies | Resolutions | Work with youth, policymakers, businesses, environmental groups, and other community members to draft and introduce a resolution that states the intention of the local governing body to prepare the community for climate impacts and reduce greenhouse gas emissions. | Several youth leaders have gotten climate resolutions passed in their Indiana hometowns |
State and local policies | Work within existing planning documents | Integrate greenhouse gas reduction and resilience strategies and actions into your comprehensive plan, zoning codes, and any other community planning documents. | |
State and local policies | Work with community members and local experts to identify state policies and programs that could help address your community's resilience needs | Participate in existing relevant municipal leagues. An example is the Global Covenant of Mayors for Climate and Energy. | |
State and local policies | Work with community members and local experts to identify state policies and programs that could help address your community's resilience needs | Organize regional or state-wide coalitions, such as a mayoral caucus, of local jurisdictions to participate in the development of state policies and programs. | |
State and local policies | Contact your representatives and encourage residents to do the same to advocate for the issues you care about | Identify which municipal referenda are influenced primarily by state aid. | |
State and local policies | Contact your representatives and encourage residents to do the same to advocate for the issues you care about | Understand if your city employs lobbyists and explore potential pathways for their work on resilience issues. | |
State and local policies | Contact your representatives and encourage residents to do the same to advocate for the issues you care about | Create opportunities (resources and events) for local constituents to interface with leaders of local resilience efforts in order to further inform residents on relevant local and state policies. | |
Air quality | Assessing vulnerabilities | Incorporate future population growth patterns and collaborate with transportation officials, air quality managers, state officials, and industry to better assess the expected performance of regulatory standards under changing climate conditions. | Minnesota Assessed Climate Risk to Public Health |
Air quality | Assessing vulnerabilities | Analyze current fire management capabilities and monitoring efforts and model expected conditions and anticipate potential future fire events to better understand the range of predicted emissions of particulate matter. | California Prepared for Increased Wildfire Risk to Air Quality From Climate Change |
Air quality | Assessing vulnerabilities | Determine current vulnerability to ozone by assessing location-based vulnerabilities, such as the extent of the urban heat island effect. | |
Air quality | Assessing vulnerabilities | Monitor current conditions to better evaluate baselines and inform future projections. | |
Air quality | Assessing vulnerabilities | Identify populations and communities that may be more vulnerable to these impacts due to existing vulnerabilities, such as pre-existing health concerns and sensitive life stages, or due to behavior, such as individuals who spend extensive time outdoors due to profession or trade. | |
Air quality | Raising awareness | Notify the public about impaired air quality through an advance warning program for elevated pollution days. When the public is aware of potentially dangerous air quality, they are able to modify their behavior to avoid exposure and prevent it from worsening. | |
Air quality | Raising awareness | Use the USEPA Air Quality Index, EnviroFlash, or SmogWatch (Indiana only) to see air quality values for your area. These tools assign a numbering system to the criteria air pollutants in your area. This information can help make determinations on how to proceed with notifying the public and help to make determinations on other implementation measures. | |
Air quality | Raising awareness | Create an air awareness program. This is a public outreach effort to engage residents in voluntary actions to reduce air pollution and issue health advisories and warnings. It can also be used to create partnerships with other governments, industries, and organizations within your area. | |
Air quality | Raising awareness | Educate Residents about the health impacts of poor air quality. Educating residents about the health risks of poor air quality can reduce the adverse health impacts of air pollution. | |
Air quality | Raising awareness | Develop and implement a plan for high air pollution days that calls for both public and private action. It is important to advise residents of things they can do on high air pollution days to limit local emissions and encourage taking action to protect their health and the health of the community. It is also important for the local government to have policies in place to curtail their own high-emitting activities on “bad air” days. Examples can include: postponing the use of gasoline-powered landscaping equipment, refueling, or painting until after peak air pollution hours.
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Air quality | Raising awareness | Implement a public education plan for health impacts of indoor air pollution. Educating people about the causes and prevention of indoor air pollution can help reduce illnesses. | |
Air quality | Pollution reduction initiatives | Converting fleets to hybrid and/or alternative fuel vehicles. | School District in East Chicago, Indiana, Purchased Propane Buses to Address Local Public Health Concerns |
Air quality | Pollution reduction initiatives | Establishing infrastructure for bicycles (e.g. bike lanes, bike racks, bike shares, and more) can allow for more people to bike instead of drive. This will reduce the emissions coming from cars. | Aurora and Lawrenceburg, Indiana Developed a Joint Bike Share Program |
Air quality | Pollution reduction initiatives | Promoting electric vehicle infrastructure. These vehicles emit no pollution and air pollution from the electricity they use has less impact on local neighborhoods. Offering incentives for the purchase and use of EVs, installing charging stations, and purchasing electric vehicles for government operations will reduce air pollution. | |
Air quality | Pollution reduction initiatives | Traffic flow efforts. Traffic congestion increases emissions and degrades air quality. Putting systems in place to reduce congestion will increase air quality. | |
Air quality | Pollution reduction initiatives | Idling cars, busses, and trucks wastes fuel and emits unnecessary pollution. Creating ordinances and programs to reduce idling, especially near sensitive areas such as schools, daycares, hospitals, etc., will cut down on emissions. | |
Air quality | Pollution reduction initiatives | Public transportation reduces the number of cars on the streets to cut down on emissions. | |
Air quality | Pollution reduction initiatives | In areas where there are no sidewalks, people are forced to drive, even over short distances. Having sidewalks in place can reduce the number of trips people need to make by car to curtail emissions. | |
Air quality | Pollution reduction initiatives | Cutting down on the amount of wind-blown dust from construction sites, industrial sites, unpaved roads, open burning, and more will reduce the amount of pollution emitted in the area. | |
Air quality | Pollution reduction initiatives | Maintaining an action line where residents can report air pollution problems such as excessive dust, vehicle idling, or industrial emissions events. | |
Extreme heat | Conduct a heat vulnerability assessment | A heat vulnerability assessment uses available data to quantify and map the heat risk throughout the community. | |
Extreme heat | Develop a heat management plan | A heat response plan can include strategies and procedures to respond to extreme heat-related emergencies. A key component is cooling centers and access to them for vulnerable populations. Plans could also include other measures (or “non-emergency measures”) such as increasing the availability and affordability of air conditioning, encouraging or requiring heat-sensitive building techniques such as green or white roofs, increasing tree coverage, and addressing urban heat islands. | |
Extreme heat | Establish urban forestry, tree, and landscape programs | These programs generally have broad goals that emphasize the multiple benefits trees can provide, including helping to cool cities. Moreover, many states give grants to communities and organizations that promote or maintain urban forests. Many local governments have enacted tree and landscape ordinances, which can ensure public safety, protect trees or views, and provide shade. Three types of ordinances, in particular, are most useful from a heat island perspective: tree protection, street trees, and parking lot shade. | New York City has used its vulnerability assessment to anticipate and prepare for changing conditions by using adaptation, and Goshen, Indiana Improved Ecosystem Resilience with Tree Canopy Inventory and Assessment |
Extreme heat | Include extreme heat concerns in air quality improvement plans | As summertime temperatures rise, the rate of ground-level ozone formation, or smog, increases. By lowering temperatures, urban heat island mitigation strategies can help reduce ground-level ozone concentrations. Many cities and counties are struggling to attain National Ambient Air Quality Standards, particularly for ground-level ozone. Most of these areas have adopted a wide range of emission control strategies on traditional air pollution sources and are seeking innovative ways to further reduce air pollution levels. Communities are considering urban forestry and cool roofs, in particular, as technologies that can help them reach attainment. | |
Extreme heat | Provide incentives and awards | These might include below-market loans, tax breaks, product rebates, grants, and giveaways. Awards can reward exemplary work, highlight innovation, and promote solutions across the public and private sectors. | Chicago assessed public health vulnerability to extreme heat events and is adapting by utilizing green infrastructure to reduce urban heat island hot-spots in anticipation of future climate risk. |
Extreme heat | Raising awareness | Communicating to the public can help people understand the risk factors and symptoms of heat-related illnesses to reduce their exposure and know how to act when a situation occurs. | |
Extreme heat | Raising awareness | A city or county council, or organizations such as air quality boards or planning commissions, can issue resolutions or public statements. A resolution does not necessarily indicate that a program will be supported financially, but it can be the first step in getting an initiative started. | New York City has used its vulnerability assessment to anticipate and prepare for changing conditions by using adaptation |
Extreme heat | Retrofitting public buildings | Many local governments interested in mitigating heat islands started by procuring cool technologies for municipal buildings. Since state and local governments usually put construction work and material supplies out for bid, they can revise bid specifications to include cool products. | Chicago, Illinois Uses Green Infrastructure to Reduce Extreme Heat and New York City Adapted to Deal with Projected Increase of Heat Waves |
Extreme heat | Setting policy, planning, and building standards and codes | Building codes are regulations adopted by local and state governments that establish standards for construction, modification, and repair of buildings and other structures. An energy code is a portion of the building code that relates to energy usage and conservation requirements and standards. Some cities and states have begun including cool roofing in their building codes because of its potential to save energy, particularly during peak loads. | |
Extreme heat | Setting policy, planning, and building standards and codes | Since state and local governments usually put construction work and material supplies out for bid, they can revise bid specifications to include cool and green infrastructure such as green roofs, cool coatings on pavement, pervious pavement, trees, parking lot shading requirements. | |
Extreme heat | Setting policy, planning, and building standards and codes | Comprehensive plans, sometimes called general plans in California and other states, are adopted by a legislative body of a local government, and set forth policies, goals, and objectives to direct development and conservation that occurs within its planning jurisdiction. They generally have a broad scope and long-term vision. Design guidelines provide a connection between general planning policies and implementing regulations, such as zoning codes and subdivision regulations. Design guidelines convey a sense of the preferred quality for a place by being descriptive and suggestive. | Chicago, Illinois Adapts to Improve Extreme Heat Preparedness and Minnesota Assesses Climate Risk to Public Health |
Extreme heat | Setting policy, planning, and building standards and codes | Zoning codes can also promote heat island mitigation strategies in various ways. For example, cities such as Sacramento have adopted parking lot shading requirements as part of their zoning codes. | |
Extreme heat | Setting policy, planning, and building standards and codes | Green building initiatives place a high priority on human and environmental health and resource conservation over the life cycle of a building. Many local, state and federal governments have adopted green building programs, or standards, that capture heat island reduction strategies. | Chicago, Illinois Uses Green Infrastructure to Reduce Extreme Heat |
Extreme heat | Setting policy, planning, and building standards and codes | Weatherization usually involves making the homes of qualifying residents, generally low-income families, more energy efficient at no cost to the residents. States use weatherization funds provided by the U.S. Department of Energy (DOE) Weatherization Assistance Program to help recipients cover heating bills and invest in energy efficiency actions that lower costs. States can also use the funds to install cooling efficiency measures, such as screening and shading devices. | |
Mosquitoes, ticks, and other vectors | Assess risk | Create a public health adaptation plan. These plans help assess the community’s vulnerability to vector-borne diseases and decide on the best plan of attack for vector reduction. | Massachusetts Surveyed Climate Readiness of Public Health Departments and Minnesota Assesses Climate Risk to Public Health |
Mosquitoes, ticks, and other vectors | Chemical management considerations | These are at best a temporary solution and should only be used if there are no other alternatives available. In all cases, there must be proper considerations of the area and safety measures must be followed exactly. Use larvicide to reduce the level of larval vectors. Use adulticide to target adult mosquitoes. This is less efficient than larvicide and should only be used for supplemental or emergency purposes. They are applied as ultra-low volume (ULV) sprays to dispense extremely small droplets.
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Mosquitoes, ticks, and other vectors | Public outreach | Search for and dispose of discarded or unused tin cans, old tires, tarps, boat covers, or other artificial water containers. | |
Mosquitoes, ticks, and other vectors | Public outreach | Make weekly inspections of the water in flower pots and plant containers. | |
Mosquitoes, ticks, and other vectors | Public outreach | Change the water in birdbaths and wading pools weekly and drain them when not in use. | |
Mosquitoes, ticks, and other vectors | Public outreach | Stock garden and lily ponds with top-feeding minnows. | |
Mosquitoes, ticks, and other vectors | Public outreach | Keep rain gutters unclogged and flat roofs dry. | |
Mosquitoes, ticks, and other vectors | Public outreach | Eliminate stagnant pools, puddles, ditches, or swamps places around the home and property. | |
Mosquitoes, ticks, and other vectors | Public outreach | Keep margins of small ponds clear of vegetation. | |
Mosquitoes, ticks, and other vectors | Public outreach | Place tight covers over cisterns, cesspools, septic tanks, fire barrels, rain barrels, and tubs where water is stored. | |
Mosquitoes, ticks, and other vectors | Public outreach | Chlorinate and filter swimming pools and outdoor hot tubs. | |
Mosquitoes, ticks, and other vectors | Public outreach | Remove all tree stumps that may hold water. | |
Mosquitoes, ticks, and other vectors | Source reduction | Conduct a survey for breeding places. A survey will allow public health officials to determine what areas are good breeding areas for the different vectors. Once these are known, they can be used as locations for reduction strategies. | |
Mosquitoes, ticks, and other vectors | Source reduction | Ditch and clean stagnant streams to ensure a continuous flow of water. | |
Mosquitoes, ticks, and other vectors | Source reduction | Drain or fill back-water pools and swamps where stagnant water accumulates. | |
Mosquitoes, ticks, and other vectors | Source reduction | Keep overgrown and heavy vegetation cleared and cut in tick-infested areas. | |
Mosquitoes, ticks, and other vectors | Source reduction | Remove vegetation and debris from along the shores of lakes and ponds to discourage breeding. | |
Mosquitoes, ticks, and other vectors | Source reduction | Stock small lakes and ponds with top-feeding minnows, if allowable. | |
Mosquitoes, ticks, and other vectors | Source reduction | Improve wetlands and marshes to encourage the development of predators (e.g. frogs, predatory insects, predatory fish). | |
Mosquitoes, ticks, and other vectors | Use structural barriers | Install window and door screens. | |
Mosquitoes, ticks, and other vectors | Use structural barriers | Cover all gaps in walls, doors, and windows. | |
Mosquitoes, ticks, and other vectors | Use structural barriers | Make sure screens are “bug tight.” | |
Water quality and public health | Assessing vulnerabilities | Model anticipated climate changes to better understand expected climate vulnerabilities to water quality conditions. | |
Water quality and public health | Assessing vulnerabilities | Work with water utilities and water resource managers to better assess the expected performance of infrastructure and natural systems under changing climate conditions. | |
Water quality and public health | Assessing vulnerabilities | Identify populations and communities that may be more vulnerable. Some groups that are more vulnerable are populations with pre-existing health concerns and/or insensitive life stages, or communities close to locations used for swimming or fishing. | |
Water quality and public health | Assessing vulnerabilities | Monitor current conditions to better evaluate baselines and inform future projections. | |
Water quality and public health | Maintain water quality | Develop models to understand potential water quality changes. | Southern Nevada Water Authority Assesses Vulnerability to Climate Change |
Water quality and public health | Maintain water quality | Increase treatment capabilities. | |
Water quality and public health | Maintain water quality | Install effluent cooling systems. | |
Water quality and public health | Maintain water quality | Manage reservoir water quality. | |
Water quality and public health | Maintain water quality | Monitor surface water conditions, | |
Water quality and public health | Maintain water quality | Retrofit intakes to accommodate lower flow or water levels. | |
Water quality and public health | Model climate risk | Conduct extreme precipitation events analyses. | Camden, New Jersey Uses Green Infrastructure to Manage Stormwater |
Water quality and public health | Model climate risk | Develop models to understand potential water quality changes. | Southern Nevada Water Authority Assesses Vulnerability to Climate Change |
Contaminated site management | Apply green infrastructure strategies | Installing drought-resistant grasses, shrubs, trees, and other deep-rooted plants will provide shading, prevent erosion, provide windbreaks, and reduce fire risk. | Bloomington, Indiana Naturalized a Creek Bank to Manage Stormwater and Establish Native Plants |
Contaminated site management | Apply green infrastructure strategies | Replacing existing vegetation with a plant mix more tolerant of long-term changes in precipitation or temperature, and/or soil addition will increase water storage capacity. | |
Contaminated site management | Construct new infrastructure | Designing a new containment system to be built at the surface, instead of belowground, will minimize potential contact between groundwater and targeted waste (or an engineered liner) and prevent contamination. | |
Contaminated site management | Construct new infrastructure | Engineered structures, such as dams, will control the flow of flood-related deposition in settings where increased underwater deposition enhances remedy performance. | |
Contaminated site management | Construct new infrastructure | Installing extraction wells at critical locations and depths will prevent or minimize groundwater upwelling into the waste zone of an aged landfill, waste consolidation unit, or lined engineered landfill. | |
Contaminated site management | Construct new infrastructure | Putting industrial-strength protective material that surrounds equipment used to ignite and combust excess landfill gas will help prevent contamination from escaping. | |
Contaminated site management | Construct new infrastructure | Building one or more structures to retain or divert floodwater, such as vegetated berms, drainage swales, levees, dams or retention ponds will reduce the risk of damage from flooding. | American Cyanamid Superfund Site Reduced Climate Exposure, Blue Plains Wastewater Facility in Washington DC Reinforced Facility Against Floods, and New Jersey Superfund site used flood controls to adapt to higher precipitation levels |
Contaminated site management | Construct new infrastructure | Installation of additional wells (and aboveground pumps) for leachate extraction in vulnerable areas will help prevent contamination from entering the water table. | |
Contaminated site management | Construct new infrastructure | Installation of pipes below rather than above ground surface where feasible, particularly for landfill gas transfer, will reduce exposure to potential damage. | |
Contaminated site management | Construct new infrastructure | Constructing a permanent system or using portable equipment provides power generated from on-site renewable resources, as a primary or redundant power supply, that can operate independent of the utility grid when needed so the system can keep running even if power is lost. | |
Contaminated site management | Construct new infrastructure | Building extended concrete footing for ground-mounted photovoltaic systems, adding additional bracing for roof-top photovoltaic or solar thermal systems, and adding additional masts for small wind turbines or windmills will help protect the systems from damage. For utility-scale systems, safeguards to address climate change vulnerabilities may be addressed in the site-specific renewable energy feasibility study. | |
Contaminated site management | Construct new infrastructure | Building a structure (commonly of concrete, steel sheet piles or timber) to support earth masses having a vertical or near-vertical slope will hold back loose soil, rocks or debris and prevent damage to the system. | American Cyanamid Superfund Site Reduced Climate Exposure |
Contaminated site management | Construct new infrastructure | Building one or more earthen structures (such as vegetated berms, vegetated swales, or stormwater ponds) or installing fabricated drainage structures (such as culverts or French drains) at vulnerable locations will prevent stormwater accumulating at higher elevations from reaching a landfill/containment system and causing damage. | |
Contaminated site management | Construct new infrastructure | Installing permanent mounts that allow rapid deployment of a cable system extending from the top of a unit to ground surface will hold structures in place in extreme weather events. | |
Contaminated site management | Construct new infrastructure | Building insulated cover systems made of high-density polyethylene or concrete will protect control devices and sensitive equipment situated aboveground for long periods. | |
Contaminated site management | Improve site operations | Integrating a series of sensors linked to electronic control devices that trigger a shutdown of the system, or linked to audible/visual alarms that alert workers of the need to manually shut down the system, when specified operating or ambient parameters are exceeded will help prevent contaminants from leaving the system. | |
Contaminated site management | Improve site operations | Using electronic systems that actively inform subscribers of extreme weather events or provide internet postings on local/regional weather and related conditions will inform managers when risk is high and they need to implement protective measures. | |
Contaminated site management | Improve site operations | Incorporating additional subsurface parameters and sampling devices in monitoring plans will gauge the potential for re-suspension of contaminated sediment under more extreme weather/climate scenarios. | |
Contaminated site management | Improve site operations | Integrating electronic devices that enable workers to suspend pumping or selected activities during extreme weather events, periods of impeded access or unexpected hydrologic conditions can prevent contaminants from being released from the system. | |
Contaminated site management | Improve site operations | Electronic systems actively inform subscribers of extreme weather events or provide internet postings on local/regional weather and related conditions to help prepare the system in the event of extreme weather. | |
Contaminated site management | Repair and retrofit facilities | In situ placement of amendments through techniques such as broadcasting the material in a pelletized form or using a thicker layer of coversand will accelerate material settling. | |
Contaminated site management | Repair and retrofit facilities | Adding additional or deeper layers of stone and/or gravel above a sand base layer will help withstand scouring forces of ice jams. | |
Contaminated site management | Repair and retrofit facilities | Relocating electricity and communication lines from overhead to underground positions will prevent power outages during and after extreme weather events. | |
Contaminated site management | Site fortification | Placing fixed structures on or along the shoreline of flowing inland water will help mitigate effects of erosion and protect site infrastructure. Soft armor may comprise of synthetic fabrics and/or deep-rooted vegetation while hard armor may consist of riprap, gabions and segmental retaining walls. | American Cyanamid Superfund Site Reduced Climate Exposure |
Contaminated site management | Site fortification | Adding additional or deeper layers of stone and/or gravel above a sand base layer will help withstand scouring forces of ice jams. | |
Contaminated site management | Site fortification | In situ placement of amendments through techniques such as broadcasting the material in a pelletized form or using a thicker layer of coversand will accelerate material settling. | |
Contaminated site management | Site fortification | Installing structures will stabilize a shoreline and shield it from erosion, through "soft" techniques (such as replenishing sand and/or vegetation) or "hard" techniques (such as building a seawall or installing riprap). | |
Contaminated site management | Site fortification | Repairing concrete cracks, replacing pads of insufficient size or with insufficient anchorage, or integrating retaining walls along the pad perimeter will prevent future failures. | American Cyanamid Superfund Site Reduced Climate Exposure |
Contaminated site management | Site fortification | Placing riprap adjacent to a subsurface containment barrier located along moving surface water will help minimize bank scouring that could negatively affect barrier integrity. For soil/waste capping systems vulnerable to storm surge, installing a protective vertical wall or armored base to absorb the energy of the surge to prevent cap erosion or destruction. | |
Contaminated site management | Site fortification | Enclosing vulnerable equipment or control devices in a concrete structure will prevent exposure to outside factors that could damage it. | |
Contaminated site management | Site fortification | Installing one or more steel bars in cement-grouted boreholes (and in some cases accompanied by cables) will secure an apparatus on a ground surface or reinforce a retaining wall against an earthen slope. | American Cyanamid Superfund Site Reduced Climate Exposure |
Contaminated site management | Site fortification | Anchoring a slope through the placement of concrete or rock elements against a slope and installing anchors and cables to secure the elements, or containing a slope through the placement of netting will hold back rock and debris to prevent damage to the system. | |
Contaminated site management | Site fortification | Installing permanent mounts that allow the rapid deployment of a cable system extending from the top of a unit to the ground surface will hold structures in place in extreme weather events. | |
Disaster debris management | Conduct pre-planning activities | Conduct a community-specific hazard assessment that looks at realistic worst-case scenarios and hazards, their likelihood, and the potential volumes and masses of wastes generated. Consider whether you want a single plan that addresses all hazards (recommended) or separate scenario-specific plans. | |
Disaster debris management | Conduct pre-planning activities | Consult individuals or groups who represent transportation, sanitation, emergency response, environmental health, public health, public works, zoning, agriculture, industry, and business among others. | |
Disaster debris management | Conduct pre-planning activities | Include plans of bordering jurisdictions, including bordering states, countries and tribal lands if applicable. | |
Disaster debris management | Conduct pre-planning activities | By identifying opportunities for source reduction (e.g., updating building codes for resilient building design and construction), hazard mitigation (e.g., eliminating potential problematic wastes), and developing infrastructure for composting, recycling and reuse of materials, your community will be better suited to withstand a disaster. | |
Disaster debris management | Conduct pre-planning activities | Understanding what legal and regulatory aspects apply ahead of time will allow for easier cleanup. | |
Disaster debris management | Conduct pre-planning activities | Review the Federal Emergency Management Agency’s (FEMA’s) eligibility requirements, specifically those pertaining to debris removal, for applicable situations, such as a federal emergency or major disaster declaration. | |
Disaster debris management | Conduct pre-planning activities | Identify unique local circumstances and issues that may affect waste management during an incident. | |
Disaster debris management | Develop a comprehensive pre-incident waste management plan | Use available tools to aid in plan development. USEPA’s Pre-incident All Hazards Waste Management Plan Guidelines: Four Step Waste Management Planning Process provides a suggested outline for a scalable, adaptable pre-incident plan that includes recommended plan contents and identifies issues to consider while developing the plan. The specific contents and organization of a WMP are flexible. This document provides a general example to help emergency managers and planners get started. | Northeast Indiana counties developed debris management plans |
Disaster debris management | Develop a comprehensive pre-incident waste management plan | Consult haulers, owners, and operators of waste management facilities, including reuse and recycling facilities, and other entities as they are identified while developing the plan. For unique waste streams, specialized expertise may be needed for transport and other waste management activities. Make sure all entities receive a copy of the relevant portions of the plan when it is completed. | |
Disaster debris management | Develop a comprehensive pre-incident waste management plan | Identify options for reuse, recycling, and composting for different materials and wastes. Consult with facilities and appropriate regulatory authorities about establishing acceptance criteria for these materials and wastes. | Northeast Indiana counties developed debris management plans |
Disaster debris management | Keep the waste management plan updated | Reach out to stakeholders across the whole community to review and update the pre-incident WMP regularly. | |
Disaster debris management | Keep the waste management plan updated | Schedule waste management-related exercises and track the schedule, scenarios exercised and stakeholders involved. | Northeast Indiana counties developed debris management plans |
Disaster debris management | Keep the waste management plan updated | Develop a training plan to address training needs for staff and equipment. | |
Disaster debris management | Keep the waste management plan updated | Incorporate any waste management lessons learned, after action reports and improvement plans into the pre-incident WMP. | |
Disaster debris management | Implement the waste management plan during an incident | Identify the pre-incident waste management plan (WMP) that best aligns with the specific incident, if applicable. | |
Disaster debris management | Implement the waste management plan during an incident | Identify waste management-related policy or implementation issues that require resolution. | |
Disaster debris management | Implement the waste management plan during an incident | Create the incident-specific WMP based on the pre-incident WMP. | |
Disaster debris management | Implement the waste management plan during an incident | Present the incident-specific plan to the appropriate Incident Command staff. | |
Disaster debris management | Implement the waste management plan during an incident | Notify waste management facilities of anticipated needs and utilize contract support where necessary. | |
Disaster debris management | Implement the waste management plan during an incident | Implement the waste management-related community communications and outreach plan in line with the broader, overall incident communications plan. | |
Disaster debris management | Implement the waste management plan during an incident | Identify waste sampling requirements and notify labs of anticipated analysis needs. | |
Disaster debris management | Implement the waste management plan during an incident | Conduct waste management oversight activities, such as site visits to, inspections of, and environmental monitoring at waste management sites as appropriate. | |
Disaster debris management | Implement the waste management plan during an incident | Implement a comprehensive waste and material tracking and reporting system. | |
Disaster debris management | Implement the waste management plan during an incident | Ensure protection of human health and the environment at the incident site over the long-term through continued environmental monitoring, cleanup, inspections, and other activities as necessary. | |
Disaster debris management | Develop a comprehensive pre-incident waste management plan | Collaborate with neighboring jurisdictions. | Northeast Indiana counties developed debris management plans |
Disaster debris management | Develop a comprehensive pre-incident waste management plan | Enter a mutual aid agreement. | |
Disaster debris management | Develop a comprehensive pre-incident waste management plan | Identify debris types and forecast amounts. | Northeast Indiana counties developed debris management plans |
Disaster debris management | Develop a comprehensive pre-incident waste management plan | Select alternate debris management facilities. | |
Waste reduction and recycling | Pre-planning activity | Consult haulers, owners, and operators of waste management facilities, including reuse and recycling facilities, and other entities. For unique waste streams, specialized expertise may be needed for transport and other waste management activities. Make sure all entities understand their roles in the event of an extreme weather event. Determine what opportunities exist outside of the immediate area as local facilities could be damaged during an extreme weather event. | |
Waste reduction and recycling | Pre-planning activity | Identify options for reuse, recycling, and composting for different materials and wastes. Consult with facilities and appropriate regulatory authorities about establishing acceptance criteria for these materials and wastes. Consider available reuse and recycling opportunities in other regions, states, and countries, including materials (or waste) exchanges as local facilities might not be operational or accessible. | Northeast Indiana counties developed debris management plans |
Waste reduction and recycling | Operation planning | Integrating a series of sensors linked to electronic control devices that trigger a shutdown of the system, or linked to audible/visual alarms that alert workers of the need to manually shut down the system, when specified operating or ambient parameters are exceeded will help prevent damage to the system. | |
Waste reduction and recycling | Operation planning | Using electronic systems that actively inform subscribers of extreme weather events or provide internet postings on local/regional weather and related conditions will inform managers when risk is high and they need to implement protective measures. | |
Waste reduction and recycling | Operation planning | Integrating electronic devices that enable workers to suspend pumping or selected activities during extreme weather events, periods of impeded access or unexpected hydrologic conditions can prevent contaminants from being released from the system. | |
Waste reduction and recycling | Operation planning | Electronic systems actively inform subscribers of extreme weather events or provide internet postings on local/regional weather and related conditions to help prepare the system in the event of extreme weather. | |
Waste reduction and recycling | Protecting equipment | Building one or more structures to retain or divert floodwaters, such as vegetated berms, drainage swales, levees, dams or retention ponds will reduce the risk of damage from flooding. | American Cyanamid Superfund Site Reduced Climate Exposure, Blue Plains Wastewater Facility in Washington DC Reinforced Facility Against Floods, and New Jersey Superfund site used flood controls to adapt to higher precipitation levels |
Waste reduction and recycling | Protecting equipment | Building a structure (commonly of concrete, steel sheet piles or timber) to support earth masses having a vertical or near-vertical slope will hold back loose soil, rocks or debris and prevent damage to the system. | American Cyanamid Superfund Site Reduced Climate Exposure |
Waste reduction and recycling | Protecting equipment | Building one or more earthen structures (such as vegetated berms, vegetated swales, or stormwater ponds) or installing fabricated drainage structures (such as culverts or French drains) at vulnerable locations will prevent stormwater accumulating at higher elevations from reaching a system and causing damage. | |
Waste reduction and recycling | Resilient energy | Constructing a permanent system or using portable equipment provides power generated from on-site renewable resources, as a primary or redundant power supply, that can operate independent of the utility grid when needed so the system can keep running even if power is lost. | |
Waste reduction and recycling | Resilient energy | Building extended concrete footing for ground-mounted photovoltaic systems, adding additional bracing for roof-top photovoltaic or solar thermal systems, and adding additional masts for small wind turbines or windmills will help protect the systems from damage. For utility-scale systems, safeguards to address climate change vulnerabilities may be addressed in the site-specific renewable energy feasibility study. | |
Alternative fuels | Provide electrical vehicle equipment | Install electric charging stations for city fleet operations and around the area. Increase resilience by installing solar power to fuel the electric vehicle charging stations. | |
Alternative fuels | Provide electrical vehicle equipment | Ensure charging stations have appropriate charging capacity for demand. | |
Alternative fuels | Provide electrical vehicle equipment | Ensure vehicle-to-grid technologies can respond to time-of-use markets (i.e. varying rates according to the time of day, season, and day type) or other demand response and/or load flexibility strategies. | |
Alternative fuels | Upgrade city operations | Electrify city fleet vehicles through the purchase of new electric vehicles and by phasing out gas and diesel vehicles. | |
Alternative fuels | Upgrade city operations | Electrify school and transit buses. | |
Multi-modal transportation | Encourage compact, mixed-use, transit-oriented development with high levels of connectivity. | Plan community spaces and development that promote diverse transportation options. For example, the community could prioritize or require that all new developments be easily accessible to existing or planned mass transit stations such as bus stops and rail stations, bike-share, car-share, and other transportation options. | |
Multi-modal transportation | Ensure that all transportation options encourage safe transportation | Adopt policies that prioritize off-road hike and bike trails for transportation and include safety barriers between driving lanes and bike lanes. | |
Multi-modal transportation | Ensure that all transportation options encourage safe transportation | Implement infrastructure and storage spaces for shared various forms of public and private modes of transit (i.e. bike shares, scooters, car shares, etc.). | |
Multi-modal transportation | Improve transit facility quality | Identify existing vulnerable facilities and systems that might be exposed to extreme conditions (e.g. bus stops without cover from precipitation or sun, transit hubs located in floodplains, etc.). | |
Multi-modal transportation | Improve transit facility quality | Build new infrastructure for multiple forms of transportation to climate-ready standards. | |
Multi-modal transportation | Improve transit facility quality | Adapt new infrastructure designs for multiple forms of transportation that anticipate changing environmental and operational conditions. | |
Multi-modal transportation | Improve transit facility quality | Adapt existing infrastructure and operations for multiple forms of transportation that respond to current and anticipated conditions, including changed maintenance practices and retrofits. | |
Multi-modal transportation | Ensure intermodal connectivity | Plan transit such that individual stations are connected to multiple modes of transportation such as bus, rail, bike, scooter, etc. | |
Multi-modal transportation | Ensure plentiful and equitable access to transit stops across the jurisdiction, and appropriate trip frequency at all transit stops | Create bus/train/other transit routes that provide access to all city locations and resources. | |
Multi-modal transportation | Ensure plentiful and equitable access to transit stops across the jurisdiction, and appropriate trip frequency at all transit stops | Make sure that there are either multiple routes using individual stops and/or that the same route picks up frequently enough at individual stops so that people can reasonably plan for transit throughout the day. | |
Multi-modal transportation | Ensure plentiful and equitable access to transit stops across the jurisdiction, and appropriate trip frequency at all transit stops | Roadways and transit routes can be disrupted by extreme weather, infrastructure failure, and more. Ensure that the transportation systems have been planned for as complete as possible access to the jurisdiction and that all transit stops have access to multiple routes should one be disrupted. | |
Multi-modal transportation | Promote and implement smart mobility policies | Build efficient transportation systems that automate and streamline processes (e.g. remove cash fares and implement the use of transit cards or apps, and reduce underused redundancy of rides or routes), thereby freeing up resources and ensuring access to transit. | |
Multi-modal transportation | Promote and implement smart mobility policies | Adopt useful policies and systems such as passenger information systems, automated speed enforcement, traffic surveillance, global positioning systems incorporated into public vehicles, transit signal synchronization and priority, integrated ticketing systems, real-time parking management, and radio frequency identification. By creating more efficient traffic flow, city transit will become more understandable and ideally reliable, especially in the case of extreme events. | |
Multi-modal transportation | Promote robust and diverse transportation options | Plan for multiple transportation options to function all the time, and especially when extreme weather or other unexpected events or long-term community stressors occur. Transportation options, apart from the typical single-occupancy gasoline or diesel fuel vehicles, include electric public transportation, carpool programs, gasoline or electric car-share, bike-share, a strong sidewalk network, a strong bike lane, and off-road trail network, and robust infrastructure for electric vehicles. | |
Algal blooms | Maintain water quality and availability | Develop models to understand potential water quality changes. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Algal blooms | Maintain water quality and availability | Increase treatment capabilities. | |
Algal blooms | Maintain water quality and availability | Install effluent cooling systems. | |
Algal blooms | Monitor operational capabilities | Manage reservoir water quality. | |
Algal blooms | Repair and retrofit facilities | Retrofit intakes to accommodate lower flow or water levels. | |
Drinking water | Construct new infrastructure | Build flood barriers to protect infrastructure | See how Anacortes, Washington Rebuilds Water Treatment Plant for Climate Change and Blue Plains Wastewater Facility in Washington D.C. Reinforces Facility Against Floods |
Drinking water | Construct new infrastructure | Build infrastructure needed for aquifer storage and recovery. | |
Drinking water | Construct new infrastructure | Diversify options for water supply and expand current sources. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drinking water | Construct new infrastructure | Increase water storage capacity. | See how Fredericktown, Missouri Prepares for Climate Change Drought Risk |
Drinking water | Construct new infrastructure | Plan and establish alternative or on-site power supply. | |
Drinking water | Construct new infrastructure | Relocate facilities to higher elevations. | See how Iowa City, Iowa Closed a Vulnerable Wastewater Facility |
Drinking water | Increase system efficiency | Improve energy efficiency and optimization of operations. | See how Michigan City, Indiana Reduces Energy Use and Generates Cost Savings from Water Treatment Operation Efficiency Updates |
Drinking water | Increase system efficiency | Finance and facilitate systems to recycle water. | |
Drinking water | Increase system efficiency | Practice conjunctive use. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drinking water | Maintain water quality and availability | Develop models to understand potential water quality changes. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drinking water | Maintain water quality and availability | Diversify options for water supply and expand current sources. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drinking water | Maintain water quality and availability | Implement saltwater intrusion barriers and aquifer recharge | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drinking water | Maintain water quality and availability | Increase treatment availability. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drinking water | Maintain water quality and availability | Increase water storage capacity. | See how Fredericktown, Missouri Prepares for Climate Change Drought Risk |
Drinking water | Maintain water quality and availability | Install effluent cooling systems. | |
Drinking water | Maintain water quality and availability | Manage reservoir water quality. | |
Drinking water | Maintain water quality and availability | Model and monitor groundwater conditions. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drinking water | Maintain water quality and availability | Monitor surface water conditions. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drinking water | Maintain water quality and availability | Retrofit intakes to accommodate lower flow or water levels. | |
Drinking water | Model climate risk | Conduct extreme precipitation events analyses. | See how Camden, New Jersey Uses Green Infrastructure to Manage Stormwater |
Drinking water | Model climate risk | Conduct sea-level rise and storm surge modeling. | See how Manchester-by-the-Sea, Massachusetts Assesses Climate Vulnerability |
Drinking water | Model climate risk | Develop models to understand potential water quality changes. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drinking water | Model climate risk | Model and monitor groundwater conditions. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drinking water | Model climate risk | Model and reduce inflow/infiltration in the sewer system. | |
Drinking water | Model climate risk | Use hydrologic models to project runoff and future water supply. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drinking water | Modify land use | Acquire and manage ecosystems. | |
Drinking water | Modify land use | Implement green infrastructure on site and in municipalities. | See how Camden, New Jersey Uses Green Infrastructure to Manage Stormwater, Washington D.C. Uses Green Infrastructure to Manage Stormwater, Gary, Indiana Installs Green Infrastructure to Revitalize Blighted Areas and Manage Stormwater |
Drinking water | Modify land use | Implement watershed management. | |
Drinking water | Modify land use | Integrate flood management and modeling into land use planning. | See how Iowa City, Iowa Closed a Vulnerable Wastewater Facility |
Drinking water | Modify land use | Study response of nearby wetlands to storm surge events. | |
Drinking water | Modify land use | Update fire models and practice fire management plans. | |
Drinking water | Modify water demand | Encourage and support practices to reduce water use at local power plants. | |
Drinking water | Modify water demand | Model and reduce agricultural and irrigation water demand. | |
Drinking water | Modify water demand | Model future regional electricity demand. | |
Drinking water | Modify water demand | Practice water conservation and demand management. | |
Drinking water | Monitor operational capabilities | Conduct stress testing on wastewater treatment biological systems to assess tolerance to heat. | |
Drinking water | Monitor operational capabilities | Manage reservoir water quality. | |
Drinking water | Monitor operational capabilities | Monitor and inspect the integrity of existing infrastructure. | |
Drinking water | Monitor operational capabilities | Monitor current weather conditions. | |
Drinking water | Monitor operational capabilities | Monitor flood events and drivers. | |
Drinking water | Monitor operational capabilities | Monitor surface water conditions. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drinking water | Monitor operational capabilities | Monitor vegetation changes in watersheds. | |
Drinking water | Monitor saltwater intrusion | Diversify options for water supply and expand current sources. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drinking water | Monitor saltwater intrusion | Implement saltwater intrusion barriers and aquifer recharge. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drinking water | Monitor saltwater intrusion | Increase treatment capabilities. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drinking water | Monitor saltwater intrusion | Model and monitor groundwater conditions | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drinking water | Monitor saltwater intrusion | Monitor surface water conditions | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drinking water | Plan for climate change | Adopt insurance mechanisms and other financial instruments. | |
Drinking water | Plan for climate change | Conduct climate change impacts and adaptation training. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drinking water | Plan for climate change | Develop coastal restoration plans. | |
Drinking water | Plan for climate change | Develop emergency response plans. | |
Drinking water | Plan for climate change | Develop energy management plans for key facilities. | |
Drinking water | Plan for climate change | Establish mutual aid agreements with neighboring utilities. | |
Drinking water | Plan for climate change | Identify and protect vulnerable facilities. | See how Anacortes, Washington Rebuilds Water Treatment Plant for Climate Change |
Drinking water | Plan for climate change | Integrate climate-related risks into capital improvement plans. | See how Anacortes, Washington Rebuilds Water Treatment Plant for Climate Change, Blue Plains Wastewater Facility in Washington D.C. Reinforces Facility Against Floods, Washington D.C. Utilizes Green Infrastructure to Manage Stormwater, Iowa City, Iowa Closed a Vulnerable Wastewater Facility |
Drinking water | Plan for climate change | Participate in community planning and regional collaborations. | |
Drinking water | Plan for climate change | Update drought contingency plans. | See how Fredericktown, Missouri Prepares for Climate Change Drought Risk |
Drinking water | Repair and retrofit facilities | Implement policies and procedures for post-flood and/or post-fire repairs. | See how Iowa City, Iowa Closed a Vulnerable Wastewater Facility |
Drinking water | Repair and retrofit facilities | Implement saltwater intrusion barriers and aquifer recharge. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drinking water | Repair and retrofit facilities | Improve pumps for backflow prevention. | See how the Southeast Florida Compact Analyzes Sea Level Rise Risk |
Drinking water | Repair and retrofit facilities | Increase capacity for wastewater and stormwater collection and treatment. | See how Iowa City, Iowa Closed a Vulnerable Wastewater Facility |
Drinking water | Repair and retrofit facilities | Increase treatment capabilities. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drinking water | Repair and retrofit facilities | Install effluent cooling systems. | |
Drinking water | Repair and retrofit facilities | Retrofit intakes to accommodate lower flow or water levels. | |
Drought | Construct new infrastructure | Build infrastructure needed for aquifer storage and recovery. | |
Drought | Construct new infrastructure | Diversify options for water supply and expand current sources. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drought | Construct new infrastructure | Increase water storage capacity. | See how Fredericktown, Missouri Prepares for Climate Change Drought Risk |
Drought | Increase system efficiency | Finance and facilitate systems to recycle water. | |
Drought | Increase system efficiency | Practice conjunctive use. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drought | Model climate risk | Develop models to understand potential water quality changes. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drought | Model climate risk | Model and monitor groundwater conditions. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drought | Modify land use | Implement watershed management. | |
Drought | Modify water demand | Encourage and support practices to reduce water use at local power plants | |
Drought | Modify water demand | Model and reduce agricultural and irrigation water demand. | |
Drought | Modify water demand | Model future regional electricity demand. | |
Drought | Modify water demand | Practice water conservation and demand management. | |
Drought | Monitor operational capacity | Monitor surface water conditions. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Drought | Plan for climate change | Develop emergency response plans. | |
Drought | Plan for climate change | Update drought contingency plans. | See how Fredericktown, Missouri Prepares for Climate Change Drought Risk |
Drought | Repair and retrofit facilities | Implement saltwater intrusion barriers and aquifer recharge. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Drought | Repair and retrofit facilities | Retrofit intakes to accommodate lower flow or water levels. | |
Erosion and sedimentation | Apply green infrastructure strategies | Use underground storage systems to detain runoff in underground receptacles. | |
Erosion and sedimentation | Apply green infrastructure strategies | Use a retention pond to manage stormwater. | See how Washington D.C. Uses Green Infrastructure to Manage Stormwater |
Erosion and sedimentation | Consider the costs and benefits of green infrastructure | Consider long-term benefits of green infrastructure in an economic analysis of stormwater management plans. Train local appraisers/commissioners to capture the full value of green infrastructure. Incorporate co-benefits into ROI calculations, such as ecosystem services and quality of life factors. | |
Erosion and sedimentation | Maintain and restore wetlands | Create a regional sediment management (RSM) plan. | |
Erosion and sedimentation | Maintain and restore wetlands | Develop adaptive stormwater management practices (e.g., promoting natural buffers, adequate culvert sizing). | See how Barre City, Vermont Accounts for Climate Change within a Brownfield Redevelopment Plan |
Erosion and sedimentation | Maintain and restore wetlands | Develop a wetlands plan to determine which wetlands would be suited for restoration or preservation. | See how Lake County, Illinois Created a Wetlands Decision Support Tool |
Erosion and sedimentation | Maintain and restore wetlands | Maintain Sediment Transport. | |
Erosion and sedimentation | Maintain and restore wetlands | Promote wetland accretion by introducing sediment. | |
Erosion and sedimentation | Maintain and restore wetlands | Prohibit hard shore protection. | |
Erosion and sedimentation | Maintain and restore wetlands | Trap or add sand through beach nourishment – the addition of sand to a shoreline to enhance or create a beach area. | |
Erosion and sedimentation | Maintain water quality and availability | Design a new coastal drainage system. | |
Erosion and sedimentation | Use "hard" shoreline maintenance | Harden shorelines with breakwaters – structures placed offshore to reduce wave action. | |
Erosion and sedimentation | Use "hard" shoreline maintenance | Harden shorelines with bulkheads – anchored, vertical barriers constructed at the shoreline to block erosion. | |
Erosion and sedimentation | Use "hard" shoreline maintenance | Harden shorelines with revetments that armor the slope face of the shoreline. | |
Erosion and sedimentation | Use "hard" shoreline maintenance | Harden shorelines with seawalls. | |
Erosion and sedimentation | Use natural infrastructure | Control soil erosion in the watershed. | |
Erosion and sedimentation | Use natural infrastructure | Control stream bank erosion. | |
Erosion and sedimentation | Use "soft" shoreline maintenance | Composite systems – incorporate elements of two or more methods (e.g., breakwater, sand fill, and planting vegetation). | |
Erosion and sedimentation | Use "soft" shoreline maintenance | Create dunes along backshore of beach; includes planting dune grasses and sand fencing to induce settling of wind-blown sands. | |
Erosion and sedimentation | Use "soft" shoreline maintenance | Increase shoreline setbacks. | |
Erosion and sedimentation | Use "soft" shoreline maintenance | Plant submerged aquatic vegetation (such as sea grasses) to stabilize sediment and reduce erosion. | See how San Juan Bay Estuary Program Assesses Vulnerability and Targets Adaptation Measures |
Erosion and sedimentation | Use "soft" shoreline maintenance | Redefine river flood hazard zones to match the projected expansion of flooding frequency and extent. | |
Erosion and sedimentation | Use "soft" shoreline maintenance | Remove shoreline hardening structures such as bulkheads, dikes, and other engineered structures to allow for shoreline migration. | |
Erosion and sedimentation | Use "soft" shoreline maintenance | Replace shoreline armoring with living shorelines – through beach nourishment, planting vegetation, etc. | See how San Juan Bay Estuary Program Assesses Vulnerability and Targets Adaptation Measures |
Erosion and sedimentation | Use "soft" shoreline maintenance | Restrict or prohibit development in erosion zones. | |
Erosion and sedimentation | Use "soft" shoreline maintenance | Use natural breakwaters of oysters (or install other natural breakwaters) to dissipate wave action and protect shorelines. | |
Flooding | Apply green infrastructure strategies | Use Bioretention to collect stormwater runoff. | |
Flooding | Apply green infrastructure strategies | Use a blue roof to hold precipitation after a storm event and discharge it at a controlled rate. | |
Flooding | Apply green infrastructure strategies | Use permeable pavement to allow runoff to flow through and be temporarily stored prior to discharge. | |
Flooding | Apply green infrastructure strategies | Use underground storage systems to detain runoff in underground receptacles. | |
Flooding | Apply green infrastructure strategies | Use a stormwater tree trench to store and filter stormwater runoff. | |
Flooding | Apply green infrastructure strategies | Use a retention pond to manage stormwater. | See how Washington D.C. Uses Green Infrastructure to Manage Stormwater |
Flooding | Apply green infrastructure strategies | Use extended detention wetlands to reduce flood risk and provide water quality and ecological benefits. | See how Lake County, Illinois Created a Wetlands Decision Support Tool |
Flooding | Consider stormwater management logistics | Assess whether green infrastructure could be included as a control measure in Municipal Separate Storm Sewer Systems (MS4s). | See how Washington D.C. Uses Green Infrastructure to Manage Stormwater |
Flooding | Consider stormwater management logistics | Consider offering incentives for green infrastructure to manage stormwater. | |
Flooding | Consider stormwater management logistics | Consider regulatory changes at the federal or state level. | |
Flooding | Consider stormwater management logistics | Convene stakeholders from across the watershed to address barriers. | |
Flooding | Consider stormwater management logistics | Coordinate across federal, state, local and tribal agencies. | |
Flooding | Consider stormwater management logistics | Coordinate regional policies to minimize the impact on individual communities. | |
Flooding | Consider stormwater management logistics | Develop a methodology and schedule for maintenance that includes details about who is responsible for maintenance and new protocols. | |
Flooding | Consider stormwater management logistics | Find ways that the state or county can provide incentives to Incorporate green infrastructure and Low Impact Development into existing plans. | |
Flooding | Consider stormwater management logistics | Incorporate green infrastructure and Low Impact Development into existing plans. | See how Washington D.C. Uses Green Infrastructure to Manage Stormwater |
Flooding | Consider stormwater management logistics | Look for opportunities to develop a regional or watershed-scale plan for stormwater management. | |
Flooding | Consider stormwater management logistics | Provide individual homeowners and businesses with information about how to correctly maintain green infrastructure design elements. | |
Flooding | Consider stormwater management logistics | Request modifications to reporting requirements. | |
Flooding | Consider stormwater management logistics | Seek opportunities to incorporate climate change adaptation measures into existing plans. | |
Flooding | Consider stormwater management logistics | Use pilot projects. | See how Washington D.C. Uses Green Infrastructure to Manage Stormwater |
Flooding | Construct new infrastructure | Build flood barriers to protect infrastructure. | See how Anacortes, Washington Rebuilds Water Treatment Plant for Climate Change and Blue Plains Wastewater Facility in Washington D.C. Reinforces Facility Against Floods |
Flooding | Construct new infrastructure | Build infrastructure needed for aquifer storage and recovery. | |
Flooding | Construct new infrastructure | Plan and establish alternative or on-site power supply. | |
Flooding | Construct new infrastructure | Relocate facilities to higher elevations. | See how Iowa City, Iowa Closed a Vulnerable Wastewater Facility |
Flooding | Maintain water quality and availability | Design new coastal drainage system. | |
Flooding | Maintain water quality and availability | Develop adaptive stormwater management practices (e.g., remove impervious surfaces, replace undersized culverts). | |
Flooding | Maintain water quality and availability | Plug drainage canals. | |
Flooding | Maintain and restore wetlands | Develop adaptive stormwater management practices (e.g., promoting natural buffers, adequate culvert sizing). | See how Barre City, Vermont Accounts for Climate Change within a Brownfield Redevelopment Plan |
Flooding | Maintain and restore wetlands | Maintain sediment transport. | |
Flooding | Model climate risk | Conduct extreme precipitation events analyses. | See how Camden, New Jersey Uses Green Infrastructure to Manage Stormwater |
Flooding | Model climate risk | Develop models to understand potential water quality changes. | See how Southern Nevada Water Authority Assesses Vulnerability to Climate Change and Gary, Indiana Installs Green Infrastructure to Revitalize Blighted Areas and Manage Stormwater |
Flooding | Model climate risk | Model and monitor groundwater conditions. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Flooding | Model climate risk | Model and reduce inflow/infiltration in the sewer system. | |
Flooding | Modify land use | Acquire and manage ecosystems. | |
Flooding | Modify land use | Implement green infrastructure on site and in municipalities. | See how Camden, New Jersey Uses Green Infrastructure to Manage Stormwater, Washington D.C. Utilizes Green Infrastructure to Manage Stormwater, and Gary, Indiana Installs Green Infrastructure to Revitalize Blighted Areas and Manage Stormwater |
Flooding | Modify land use | Implement watershed management. | |
Flooding | Modify land use | Integrate flood management and modeling into land use planning. | See how Iowa City, Iowa Closed a Vulnerable Wastewater Facility |
Flooding | Modify land use | Study response of nearby wetlands to storm surge events. | |
Flooding | Monitor operational capabilities | Monitor current weather conditions. | |
Flooding | Monitor operational capabilities | Monitor flood events and drivers. | |
Flooding | Plan for climate change | Adopt insurance mechanisms and other financial instruments. | |
Flooding | Plan for climate change | Conduct climate change impacts and adaptation training. | See how Southern Nevada Water Authority Assesses Vulnerability to Climate Change |
Flooding | Plan for climate change | Develop coastal restoration plans. | |
Flooding | Plan for climate change | Develop emergency response plans. | |
Flooding | Plan for climate change | Develop energy management plans for key facilities. | |
Flooding | Plan for climate change | Establish mutual aid agreements with neighboring utilities. | |
Flooding | Plan for climate change | Identify and protect vulnerable facilities. | See how Anacortes, Washington Rebuilds Water Treatment Plant for Climate Change |
Flooding | Plan for climate change | Integrate climate-related risks into capital improvement plans. | See how Anacortes, Washington Rebuilds Water Treatment Plant for Climate Change, Blue Plains Wastewater Facility in Washington D.C. Reinforces Facility Against Floods, Washington D.C. Utilizes Green Infrastructure to Manage Stormwater, Iowa City, Iowa Closed a Vulnerable Wastewater Facility |
Flooding | Plan for climate change | Participate in community planning and regional collaborations. | |
Flooding | Preserve coastal land development | Incorporate consideration of climate change impacts into planning for new infrastructure (e.g., homes, businesses). | |
Flooding | Provide public awareness and coordination | Adopt more stringent policies. | |
Flooding | Provide public awareness and coordination | Build awareness and knowledge via climate change and stormwater management curriculum. | |
Flooding | Provide public awareness and coordination | Collaborate with community groups. | |
Flooding | Provide public awareness and coordination | Create opportunities for staff to exchange experiences and ideas for programs. | |
Flooding | Provide public awareness and coordination | Developers can demonstrate attractive, cost-effective, marketable solutions. | |
Flooding | Provide public awareness and coordination | Engage in existing peer-to-peer networks. | |
Flooding | Provide public awareness and coordination | Showcase green infrastructure climate adaptation projects. | See how Camden, New Jersey Uses Green Infrastructure to Manage Stormwater |
Flooding | Provide public awareness and coordination | Take advantage of existing resources that promote information sharing. | |
Flooding | Repair and retrofit facilities | Implement policies and procedures for post-flood and/or post-fire repairs. | Iowa City, Iowa Closed a Vulnerable Wastewater Facility |
Flooding | Repair and retrofit facilities | Implement saltwater intrusion barriers and aquifer recharge. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Flooding | Repair and retrofit facilities | Improve pumps for backflow prevention. | See how the Southeast Florida Compact Analyzes Sea Level Rise Risk |
Flooding | Repair and retrofit facilities | Increase capacity for wastewater and stormwater collection and treatment. | Iowa City, Iowa Closed a Vulnerable Wastewater Facility |
Flooding | Repair and retrofit facilities | Increase treatment capabilities. | See how Southern Nevada Water Authority Assesses Vulnerability To Climate Change |
Flooding | Use climate and land use data | Address the likely need to facilitate a change in thinking to enable action in the face of uncertainties that have not been traditionally considered in decision making but now should be. | |
Flooding | Use climate and land use data | Assemble existing data sets with information such as historic land use, planned development, topography, and location of floodplains. | |
Flooding | Use climate and land use data | Communicate the overlap of "short-term" infrastructure lifetimes with longer-term climate changes. | See how Minnehaha, Minnesota Creek Watershed District Assesses Stormwater Management Climate Vulnerability |
Flooding | Use climate and land use data | Consider how current design standards are formulated a starting point to the discussion. | |
Flooding | Use climate and land use data | Demonstrate the use of dynamical downscaling on research projects at the site scale. | |
Flooding | Use climate and land use data | Develop a "wish-list" of data that should be collected to improve understanding of climate changes. | |
Flooding | Use climate and land use data | Develop regional scenarios. | See how the Southeast Florida Compact Analyzes Sea Level Rise Risk |
Flooding | Use climate and land use data | Expand staff expertise in GIS or other data management processes. | |
Flooding | Use climate and land use data | Mine existing data sources to ensure that decisions are based on the best available data. | |
Flooding | Use climate and land use data | Routinely re-evaluate the accuracy of land use maps. | |
Flooding | Use climate and land use data | Seek partnerships that can contribute to the field of knowledge. | |
Flooding | Use climate and land use data | Use land use build-out models to understand the maximum allowable use. | See how the Southeast Florida Compact Analyzes Sea Level Rise Risk |
Flooding | Use climate and land use data | Use land use build-out models to understand the maximum likely development in a region. | See how the Southeast Florida Compact Analyzes Sea Level Rise Risk |
Flooding | Use climate and land use data | Use resources to show historical and future trend lines. | See how Manchester-by-the-Sea, Massachusetts Assesses Climate Vulnerability |
Flooding | Use climate and land use data | Use scenarios to develop a set of possible futures, rather than seeking consensus on a particular projection. | |
Flooding | Use natural infrastructure | Build swales and rain gardens. | |
Flooding | Use natural infrastructure | Control groundwater withdrawal. | |
Flooding | Use natural infrastructure | Control soil erosion in the watershed. | |
Flooding | Use natural infrastructure | Control stormwater runoff. | |
Flooding | Use natural infrastructure | Control stream bank erosion. | |
Flooding | Use natural infrastructure | Create deep pools or artificial logjams. | |
Flooding | Use natural infrastructure | Plant forest and floodplain habitat. | |
Flooding | Use natural infrastructure | Plant trees. | |
Flooding | Use natural infrastructure | Promote stormwater infiltration. | |
Flooding | Use natural infrastructure | Remove unneeded channelization. | |
Flooding | Use natural infrastructure | Removing unneeded dams and impoundments. | |
Flooding | Use "soft" shoreline maintenance | Redefine river flood hazard zones to match the projected expansion of flooding frequency and extent. | |
Green infrastructure | Add green infrastructure | Use a retention pond to manage stormwater. | See how DC Utilizes Green Infrastructure to Manage Stormwater |
Green infrastructure | Add green infrastructure | Use a stormwater tree trench to store and filter stormwater runoff. | |
Green infrastructure | Add green infrastructure | Use bioretention to collect stormwater runoff. | |
Green infrastructure | Add green infrastructure | Use a blue roof to hold precipitation after a storm event and discharge it at a controlled rate. | |
Green infrastructure | Add green infrastructure | Use extended detention wetlands to reduce flood risk and provide water quality and ecological benefits. | See how Lake County, Illinois Created a Decision Support Tool to analyze their wetland functions |
Green infrastructure | Add green infrastructure | Use permeable pavement to allow runoff to flow through and be temporarily stored prior to discharge. | |
Green infrastructure | Add green infrastructure | Use underground storage systems to detain runoff in underground receptacles. | |
Green infrastructure | Build staff capacity | Conduct pilot studies. | See how DC Utilizes Green Infrastructure to Manage Stormwater |
Green infrastructure | Build staff capacity | Consider using or developing a stormwater model ordinance for green infrastructure. | |
Green infrastructure | Build staff capacity | Hire new staff with green infrastructure design and implementation experience. | |
Green infrastructure | Build staff capacity | Offer incentives for engineers or contractors to use green infrastructure designs. | |
Green infrastructure | Build staff capacity | Provide training for municipal staff on green infrastructure. | |
Green infrastructure | Build staff capacity | Publicize a list of "certified or qualified" green infrastructure contractors and engineers. | |
Green infrastructure | Consider the costs and benefits | Collaborate across departments to coordinate the collection of data on the costs and benefits of green infrastructure. | |
Green infrastructure | Consider the costs and benefits | Conduct research and collect data. | |
Green infrastructure | Consider the costs and benefits | Consider long-term benefits of green infrastructure in an economic analysis of stormwater management plans. | |
Green infrastructure | Consider the costs and benefits | Develop tools to assist with quantifying costs and benefits. | |
Green infrastructure | Consider the costs and benefits | Ensure existing case studies are readily available. | |
Green infrastructure | Consider the costs and benefits | Identify opportunities to integrate green infrastructure into other projects. | |
Green infrastructure | Consider the costs and benefits | Incorporate cost and benefit information into tools (e.g., visualization tools) that can support project planning and assist in communications with multiple audiences. | |
Green infrastructure | Consider the costs and benefits | Present cost statistics in formats that can be shared with colleagues, elected officials and the public. | |
Green infrastructure | Consider the costs and benefits | Share existing information about how natural systems can be cost-effective and efficient methods of stormwater control and flood mitigation. | |
Green infrastructure | Consider the costs and benefits | Use cost planning scenarios that are based on real projects for the state or region. | |
Green infrastructure | Consider the costs and benefits | Collaborate across departments to coordinate the collection of data on the costs and benefits of green infrastructure. | |
Saltwater intrusion | Maintain and restore wetlands | Allow coastal wetlands to migrate inland (e.g., through setbacks, density restrictions, land purchases). | See how Maryland Analyzes Coastal Wetlands Susceptibility to Climate Change |
Saltwater intrusion | Maintain and restore wetlands | Create a regional sediment management plan. | |
Saltwater intrusion | Maintain and restore wetlands | Develop adaptive stormwater management practices (e.g., promoting natural buffers, adequate culvert sizing). | See how Barre City, Vermont Accounts for Climate Change within a Brownfield Redevelopment Plan |
Saltwater intrusion | Maintain and restore wetlands | Establish rolling easements. | |
Saltwater intrusion | Maintain and restore wetlands | Identify and protect ecologically significant ("critical") areas such as nursery grounds, spawning grounds, and areas of high species diversity. | See how San Juan Bay Estuary Program Assesses Vulnerability and Targets Adaptation Measures |
Saltwater intrusion | Maintain and restore wetlands | Incorporate wetland protection into infrastructure planning (e.g., transportation planning, sewer utilities). | |
Saltwater intrusion | Maintain and restore wetlands | Maintain sediment transport. | |
Saltwater intrusion | Maintain and restore wetlands | Preserve and restore the structural complexity and biodiversity of vegetation in tidal marshes, seagrass meadows, and mangroves. | See how Southwest Florida Assesses Salt Marsh Vulnerability to Sea Level Rise |
Saltwater intrusion | Maintain and restore wetlands | Prohibit hard shore protection. | |
Saltwater intrusion | Maintain and restore wetlands | Promote wetland accretion by introducing sediment. | |
Saltwater intrusion | Maintain and restore wetlands | Remove hard protection or other barriers to tidal and riverine flow (e.g., riverine and tidal dike removals). | |
Saltwater intrusion | Maintain and restore wetlands | Trap or add sand through beach nourishment – the addition of sand to a shoreline to enhance or create a beach area. | |
Saltwater intrusion | Maintain and restore wetlands | Trap sand through the construction of groins – a barrier type structure that traps sand by interrupting longshore transport. | |
Saltwater intrusion | Maintain water quality and availability | Create water markets – transferring land and water from agricultural to community use. | |
Saltwater intrusion | Maintain water quality and availability | Design a new coastal drainage system. | |
Saltwater intrusion | Maintain water quality and availability | Develop adaptive stormwater management practices (e.g., remove impervious surfaces, replace undersized culverts). | |
Saltwater intrusion | Maintain water quality and availability | Establish or broaden "use containment areas" to allocate and cap water withdrawal Incorporate sea level rise into planning for new infrastructure (e.g., sewage systems). | See how Southeast Florida Compact Analyzes Sea Level Rise Risk |
Saltwater intrusion | Maintain water quality and availability | Integrate climate change scenarios into the water supply system. | See how Southeast Florida Compact Analyzes Sea Level Rise Risk |
Saltwater intrusion | Maintain water quality and availability | Manage water demand (through water reuse, recycling, rainwater harvesting, desalination, etc.). | |
Saltwater intrusion | Maintain water quality and availability | Plug drainage canals. | |
Saltwater intrusion | Maintain water quality and availability | Prevent or limit groundwater extraction from shallow aquifers. | |
Saltwater intrusion | Preserve coastal land and development | Create permitting rules that constrain locations for landfills, hazardous waste dumps, mine tailings, and toxic chemical facilities. | |
Saltwater intrusion | Preserve coastal land and development | Incorporate consideration of climate change impacts into planning for new infrastructure (e.g., homes, businesses). | |
Saltwater intrusion | Preserve coastal land and development | Integrate coastal management into land use planning. | See how Maryland Analyzes Coastal Wetlands Susceptibility to Climate Change |
Saltwater intrusion | Preserve coastal land and development | Integrated Coastal Zone Management – using an integrated approach to achieve sustainability. | |
Saltwater intrusion | Preserve coastal land and development | Land acquisition program – purchase coastal land that is damaged or prone to damage and use it for conservation. | |
Saltwater intrusion | Preserve coastal land and development | Land exchange programs – owners exchange property in the floodplain for county-owned land outside of the floodplain. | |
Saltwater intrusion | Preserve coastal land and development | Manage realignment and deliberately realign engineering structures affecting rivers, estuaries, and coastlines. | |
Saltwater intrusion | Preserve habitat | Adapt protections of important biogeochemical zones and critical habitats as the locations of these areas change with climate. | |
Saltwater intrusion | Preserve habitat | Design estuaries with dynamic boundaries and buffers. | |
Saltwater intrusion | Preserve habitat | Connect landscapes with corridors to enable migrations. | See how Southwest Florida Assesses Salt Marsh Vulnerability to Sea Level Rise |
Saltwater intrusion | Preserve habitat | Expand the planning horizons of land use planning to incorporate longer climate predictions. | See how Maryland Analyzes Coastal Wetlands Susceptibility to Climate Change |
Saltwater intrusion | Preserve habitat | Purchase upland development rights or property rights. | |
Saltwater intrusion | Preserve habitat | Replicate habitat types in multiple areas to spread risks associated with climate change. | See how Pennsylvania Protects Coldwater Fisheries and Water Quality from Climate Change |
Saltwater intrusion | Preserve habitat | Retreat from, and abandonment of, coastal barriers. | |
Saltwater intrusion | Use "soft" shoreline maintenance | Composite systems – incorporate elements of two or more methods (e.g., breakwater, sand fill, and planting vegetation) | |
Saltwater intrusion | Use "soft" shoreline maintenance | Create dunes along backshore of beach; includes planting dune grasses and sand fencing to induce settling of wind-blown sands. | |
Saltwater intrusion | Use "soft" shoreline maintenance | Create marsh by planting the appropriate species – typically grasses, sedges, or rushes – in the existing substrate Increase shoreline setbacks. | |
Saltwater intrusion | Use "soft" shoreline maintenance | Install rock sills and other artificial breakwaters in front of tidal marshes along energetic estuarine shores. | |
Saltwater intrusion | Use "soft" shoreline maintenance | Plant submerged aquatic vegetation (such as sea grasses) to stabilize sediment and reduce erosion. | See how San Juan Bay Estuary Program Assesses Vulnerability and Targets Adaptation Measures |
Saltwater intrusion | Use "soft" shoreline maintenance | Redefine riverine flood hazard zones to match the projected expansion of flooding frequency and extent. | |
Saltwater intrusion | Use "soft" shoreline maintenance | Remove shoreline hardening structures such as bulkheads, dikes, and other engineered structures to allow for shoreline migration. | |
Saltwater intrusion | Use "soft" shoreline maintenance | Replace shoreline armoring with living shorelines – through beach nourishment, planting vegetation, etc. | See how San Juan Bay Estuary Program Assesses Vulnerability and Targets Adaptation Measures |
Saltwater intrusion | Use "soft" shoreline maintenance | Measures that restrict or prohibit development in erosion zones. | |
Saltwater intrusion | Use "soft" shoreline maintenance | Use natural breakwaters of oysters (or install other natural breakwaters) to dissipate wave action and protect shorelines. | |
Sea-level rise | Construct new infrastructure | Build flood barriers to protect infrastructure. | See how Anacortes, Washington Rebuilds Water Treatment Plant for Climate Change |
Sea-level rise | Construct new infrastructure | Relocate facilities to higher elevations. | See how Iowa City, Iowa Closed a Vulnerable Wastewater Facility |
Sea-level rise | Maintain and restore wetlands | Allow coastal wetlands to migrate inland (e.g., through setbacks, density restrictions land purchases). | See how Maryland Analyzes Coastal Wetlands Susceptibility to Climate Change |
Sea-level rise | Maintain and restore wetlands | Establish rolling easements. | |
Sea-level rise | Maintain and restore wetlands | Remove hard protection or other barriers to tidal and riverine flow (e.g., riverine and tidal dike removals). | |
Sea-level rise | Maintain water quality and availability | Incorporate sea level rise into planning for new infrastructure (e.g., sewage systems). | See how Southeast Florida Compact Analyzes Sea Level Rise Risk |
Sea-level rise | Model climate risk | Conduct sea-level rise and storm surge modeling. | See how Manchester-by-the-Sea, Massachusetts Assesses Climate Vulnerability |
Sea-level rise | Model climate risk | Model and monitor groundwater conditions. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Sea-level rise | Model climate risk | Model and reduce inflow/infiltration in the sewer system. | |
Sea-level rise | Modify land use | Study response of nearby wetlands to storm surge events. | |
Sea-level rise | Monitor operational capabilities | Monitor flood events and drivers. | |
Sea-level rise | Plan for climate change | Develop coastal restoration plans. | |
Sea-level rise | Plan for climate change | Integrate climate-related risks into capital improvement plans. | See how Anacortes, Washington Rebuilds Water Treatment Plant for Climate Change |
Sea-level rise | Preserve coastal land and development | Incorporate consideration of climate change impacts into planning for new infrastructure (e.g., homes, businesses). | |
Sea-level rise | Preserve coastal land and development | Integrated Coastal Zone Management – using an integrated approach to achieve sustainability | |
Sea-level rise | Preserve coastal land and development | Land acquisition program – purchase coastal land that is damaged or prone to damage and use it for conservation | |
Sea-level rise | Preserve habitat | Retreat from, and abandonment of, coastal barriers | |
Sea-level rise | Repair and retrofit facilities | Implement saltwater intrusion barriers and aquifer recharge. | See how Tampa Bay Diversifies Water Sources to Reduce Climate Risk |
Sea-level rise | Repair and retrofit facilities | Improve pumps for backflow prevention. | See how Southeast Florida Compact Analyzes Sea Level Rise Risk |
Sea-level rise | Use "soft" shoreline maintenance | Create dunes along backshore of beach; includes planting dune grasses and sand fencing to induce settling of wind-blown sands. | |
Sea-level rise | Use "soft" shoreline maintenance | Increase shoreline setbacks. | |
Sea-level rise | Use "soft" shoreline maintenance | Plant submerged aquatic vegetation (such as seagrasses) to stabilize sediment and reduce erosion. | See how San Juan Bay Estuary Program Assesses Vulnerability and Targets Adaptation Measures |
Sea-level rise | Use "soft" shoreline maintenance | Redefine river flood hazard zones to match the projected expansion of flooding frequency and extent. | |
Sea-level rise | Use "soft" shoreline maintenance | Remove shoreline hardening structures such as bulkheads, dikes, and other engineered structures to allow for shoreline migration. | |
Sea-level rise | Use "soft" shoreline maintenance | Replace shoreline armoring with living shorelines – through beach nourishment, planting vegetation, etc. | See how San Juan Bay Estuary Program Assesses Vulnerability and Targets Adaptation Measures |
Sea-level rise | Use "soft" shoreline maintenance | Use natural breakwaters of oysters (or install other natural breakwaters) to dissipate wave action and protect shorelines. | |