Abstract:The type, size, and location of renewable energy (RE) deployment dramatically affects benefits to climate and health. Here, we develop a ten-region model to assess the magnitude of health and climate benefits across the US We then use this model to assess the benefits of deploying varying capacities of wind, utility-scale solar photovoltaics (PV), and rooftop solar PV in different regions in the US-a total of 284 different scenarios. Total benefits ranged from $2.2 trillion for 3000 MW of wind in the Upper Mid… Show more
“…-U.S. EPA's AVoided Emissions and geneRation Tool (AVERT) (105) was the most used emissions model, used in four studies (83)(84)(85)(86).…”
Section: Models and Methodsmentioning
confidence: 99%
“…Four compare the co-benefits of different renewable energy deployments in various regions of the U.S. (79,81,83,86); two, the air quality co-benefits of renewable energy deployed across the continental United States (82,85). Emissions were quantified with data and analysis tools (83,85,86), a capacity expansion model (80,82), a production cost model (81,84) or an emissions inventory (79). Most use a reduced-form air quality model; only Abel et al (84) and Plachinski et al (80) use a full physics air quality model to evaluate energy efficiency and renewable energy benefits.…”
Research on air quality and human health "co-benefits" from climate mitigation strategies represents a growing area of policy-relevant scholarship. Compared to other aspects of climate and energy policy evaluation, however, there are still relatively few of these co-benefits analyses. This sparsity reflects a historical disconnect between research quantifying energy and climate, and research dealing with air quality and health. The air quality co-benefits of climate, clean energy, and transportation electrification policies are typically assessed with models spanning social, physical, chemical, and biological systems. This review article summarizes studies to date and presents methods used for these interdisciplinary analyses. Studies in the peer-reviewed literature (n = 26) have evaluated carbon pricing, renewable portfolio standards, energy efficiency, renewable energy deployment, and clean transportation. A number of major findings have emerged from these studies: [1] decarbonization strategies can reduce air pollution disproportionally on the most polluted days; [2] renewable energy deployment and climate policies offer the highest health and economic benefits in regions with greater reliance on coal generation; [3] monetized air quality health co-benefits can offset costs of climate policy implementation; [4] monetized co-benefits typically exceed the levelized cost of electricity (LCOE) of renewable energies; [5] Electric vehicle (EV) adoption generally improves air quality on peak pollution days, but can result in ozone dis-benefits in urban centers due to the titration of ozone with nitrogen oxides. Drawing from these published studies, we review the state of knowledge on climate co-benefits to air quality and health, identifying opportunities for policy action and further research.
“…-U.S. EPA's AVoided Emissions and geneRation Tool (AVERT) (105) was the most used emissions model, used in four studies (83)(84)(85)(86).…”
Section: Models and Methodsmentioning
confidence: 99%
“…Four compare the co-benefits of different renewable energy deployments in various regions of the U.S. (79,81,83,86); two, the air quality co-benefits of renewable energy deployed across the continental United States (82,85). Emissions were quantified with data and analysis tools (83,85,86), a capacity expansion model (80,82), a production cost model (81,84) or an emissions inventory (79). Most use a reduced-form air quality model; only Abel et al (84) and Plachinski et al (80) use a full physics air quality model to evaluate energy efficiency and renewable energy benefits.…”
Research on air quality and human health "co-benefits" from climate mitigation strategies represents a growing area of policy-relevant scholarship. Compared to other aspects of climate and energy policy evaluation, however, there are still relatively few of these co-benefits analyses. This sparsity reflects a historical disconnect between research quantifying energy and climate, and research dealing with air quality and health. The air quality co-benefits of climate, clean energy, and transportation electrification policies are typically assessed with models spanning social, physical, chemical, and biological systems. This review article summarizes studies to date and presents methods used for these interdisciplinary analyses. Studies in the peer-reviewed literature (n = 26) have evaluated carbon pricing, renewable portfolio standards, energy efficiency, renewable energy deployment, and clean transportation. A number of major findings have emerged from these studies: [1] decarbonization strategies can reduce air pollution disproportionally on the most polluted days; [2] renewable energy deployment and climate policies offer the highest health and economic benefits in regions with greater reliance on coal generation; [3] monetized air quality health co-benefits can offset costs of climate policy implementation; [4] monetized co-benefits typically exceed the levelized cost of electricity (LCOE) of renewable energies; [5] Electric vehicle (EV) adoption generally improves air quality on peak pollution days, but can result in ozone dis-benefits in urban centers due to the titration of ozone with nitrogen oxides. Drawing from these published studies, we review the state of knowledge on climate co-benefits to air quality and health, identifying opportunities for policy action and further research.
“…There is a large suite of adaptation interventions and retrofits that would reduce indoor temperatures and reduce energy demand. These climate change adaptation retrofits, like those simulated within this paper, result in regional climate and health benefits accrued from reductions in GHG and AP emissions generated through energy production (Buonocore et al, 2016(Buonocore et al, , 2019MacNaughton et al, 2018). These indirect benefits to climate and health are not widely considered in the planning and implementation of climate change adaptation strategies.…”
Section: Discussionmentioning
confidence: 92%
“…This analysis employs several publicly available tools and follows similar methodology and model framework as other research on the topic (Buonocore et al, 2016(Buonocore et al, , 2019MacNaughton et al, 2018). We translated energy reductions output from the building simulations into GHG emission (CO 2, CH 4 , and N 2 O) and criteria AP emission (PM 2.5 , SO 2 , and NO x ) reductions using the Environmental Protection Agency's (EPA) Emissions and Generation Resource Integrated Database (eGRID) which provided emissions factors for GHG's and AP's of interest (US EPA, 2018).…”
Section: Benefits Of Residential Energy Retrofitsmentioning
confidence: 99%
“…The development and implementation of building energy codes such as ASHRAE 90.1, IECC, and non-mandatory systems such as LEED in the U.S. (ASHRAE, 2016;International Code Council, 2018;USGBC), have resulted in a push toward more efficient buildings. While reducing building energy demand (and utility cost) has been the main target of these efforts, regional climate and health benefits accrue from reductions in GHG and AP emissions (Buonocore et al, 2016(Buonocore et al, , 2019MacNaughton et al, 2018). Further, these energy reduction measures can also enhance resiliency of buildings to extreme heat through indoor temperature reductions (Silvero et al, 2019b).…”
As the frequency and severity of extreme heat increases with global climate change, residential buildings play a key role in defining personal temperature exposures. In recent decades, residential buildings have become the focus of energy efficiency and cost savings programs and initiatives. Residential buildings can also mitigate high indoor temperatures and heat-related health impacts, but these heat adaptation interventions have not been fully evaluated for their potential energy, climate, and health benefits. We aimed to quantify the health and climate benefits of energy and indoor temperature reductions that result from heat adaptation strategies applied to residential (specifically single-family detached built between 1990 and 2010) buildings in 10 U.S. cities. Building energy models were used to simulate energy reduction retrofits, including changing roof reflectivity, adding window overhangs, improving window properties, and roof/wall insulation, as well as the addition of shade trees and indoor phase change materials. We used the building simulation results to estimate attendant reductions in greenhouse gas (GHG) and criteria air pollution (AP) emissions from the electrical grid, and used the damage estimates to evaluate the resulting climate and health benefits. Under light and deep retrofit scenarios, respectively, we estimate that the simulated heat adaptation retrofits in this subset of relatively new buildings
Destructive heat waves, floods, and wildfires, all made more likely because of climate change, have already contributed to an estimated average $148 billion in damages annually over the last 5 years in the US. 1 In the health care sector, while some progress has been made to eliminate the 8.5% of all US greenhouse gas emissions that come from the provision of health care and to advance climate resilience in health care, more is needed. To date, of the 50 largest health care systems in the country, which provide half the hospital beds in the country, only 19 have set targets for emissions reductions. 2 To accelerate progress, climate action must align with foundational goals of health care and be patient-centered and advance health equity.Climate action in the health care sector often means taking steps to become more resilient to floods, fires, and extreme heat through, for example, installing redundant power systems, fire barriers, and flood walls. As helpful as these measures are for keeping facilities operational, what if patients and staff cannot access care facilities, as often happens when extreme events occur? Regarding decarbonization, only 18% of health care's total carbon footprint can be traced to health care facilities, including the electricity they consume, with the rest largely embedded in supply chains for food, VIEWPOINT
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