Brief Communication March 2017 | Volume 125 | Issue 3
Rethinking Environmental Protection: Meeting the Challenges of a Changing World
Thomas A. Burke, Wayne E. Cascio, Daniel L. Costa, Kacee Deener, Thomas D. Fontaine, Florence A. Fulk, Laura E. Jackson, Wayne R. Munns Jr., Jennifer Orme-Zavaleta, Michael W. Slimak, and Valerie G. Zartarian
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From climate change to hydraulic fracturing, and from drinking water safety to wildfires, environmental challenges are changing. The United States has made substantial environmental protection progress based on media-specific and single pollutant risk-based frameworks. However, today’s environmental problems are increasingly complex and new scientific approaches and tools are needed to achieve sustainable solutions to protect the environment and public health. In this article, we present examples of today’s environmental challenges and offer an integrated systems approach to address them. We provide a strategic framework and recommendations for advancing the application of science for protecting the environment and public health. We posit that addressing 21st century challenges requires transdisciplinary and systems approaches, new data sources, and stakeholder partnerships. To address these challenges, we outline a process driven by problem formulation with the following steps: a) formulate the problem holistically, b) gather and synthesize diverse information, c) develop and assess options, and d) implement sustainable solutions. This process will require new skills and education in systems science, with an emphasis on science translation. A systems-based approach can transcend media- and receptor-specific bounds, integrate diverse information, and recognize the inextricable link between ecology and human health.
Citation: Burke TA, Cascio WE, Costa DL, Deener K, Fontaine TD, Fulk FA, Jackson LE, Munns, Jr. WR, Orme-Zavaleta J, Slimak MW, Zartarian VG. 2016. Rethinking environmental protection: meeting the challenges of a changing world. Environ Health Perspect 125:A27–A33; http://dx.doi.org/10.1289/EHP1465
Address correspondence to K. Deener, Ronald Reagan Bldg., 1300 Pennsylvania Ave., N.W. Room 41207, Washington, DC 20004 USA. Telephone: (202) 564-1990. E-mail: Deener.email@example.com
The authors would like to thank the following individuals: K. Brooks, former Acting Assistant Administrator, Office of Administration and Resources Management, U.S. Environmental Protection Agency (EPA) for his insights into and references about the history of the U.S. EPA; S. Edwards and R. Hines of the U.S. EPA for Figure 1, which was used to describe the underpinning of the systems framework research at the National Health and Environmental Effects Research Laboratory, U.S. EPA; and J. Havel at SRA International, Inc. for the design of Figure 1.
The views expressed in this paper are those of the authors and do not necessarily reflect the views or policies of the U.S. EPA.
The authors declare they have no actual or potential competing financial interests.
Final Publication: 1 March 2017
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Environmental and public health scientists and decision-makers are addressing new and complex environmental challenges that impact human well-being and ecological health. Energy demands have increased, and sources and approaches to developing energy are changing, raising questions about environmental and human health impacts. Land use patterns are evolving, and land use decisions can impact air, land, and water quality, and consequently, human health. Agriculture and manufacturing are also changing as technology advances. With these changes the focus of environmental protection has expanded beyond local effects and to increasingly recognize the global impacts of human activity on ecological and human health, aptly described as “wicked” problems (Churchman 1967; Rittel and Webber 1973; Stahl 2014).
Wicked problems exist on various spatial scales that unfold over long temporal scales and have possible global implications. They are difficult to define, unstable, and socially complex; have no clear or single solution or end point; and extend beyond the understanding of one discipline or responsibility of one organization (NRC 2012). Because of the complex interdependencies, efforts to solve one aspect of a problem may reveal or create other problems (NRC 2012). Based on these definitions, the environmental pollution problems of today are termed “wicked” problems (NRC 2012).
In this article, we characterize today’s most pressing wicked environmental health problems and, drawing from research conducted by the U.S. Environmental Protection Agency (EPA), Office of Research and Development and other environmental organizations, highlight tools and approaches that can be used to evaluate the many complex dimensions of these problems. Finally, we present a new framework for a systems approach for finding sustainable solutions to these complex problems.
Today’s Wicked Problems
A number of complex issues have been identified by the scientific community as wicked problems:
Climate change. In 2015, 195 countries adopted the first universal climate agreement, noting the need for an effective and progressive response to the urgent threat of climate change (United Nations 2015). An increasing range of global adverse effects from climate change are affecting air quality, water resources, agriculture, and wildlife habitats, as well as basic infrastructure systems such as control of contaminated sites, waste management practices, and the functioning of the built environment (U.S. EPA 2015a). Climate change is altering the distribution and intensity of public health–related stressors (e.g., temperature, vector-borne diseases) and is eroding gains made in controlling air pollution in many urban areas (U.S. EPA 2015a). While some geographic areas may see advantages of a warmer climate (e.g., reductions in death due to extreme cold temperatures), estimates show the net impacts of climate change are likely to be widespread and significant (McCabe and Burke 2016). Without continued emission reductions, the public health and welfare of current and future generations are in jeopardy, and vulnerable citizens, like children, older adults, and people living in poverty, are most at risk (U.S. EPA 2015b).
Energy. Choices about future energy sources have far-reaching economic, social, environmental, and public health effects. Energy provides essential support for society. From the household to the industrial setting, it is used to produce and transport goods, move people, and support a productive and growing economy. At the same time, energy production and use affect environmental quality. Oil and gas development, whether conventional or shale oil and gas, pose inherent environmental and public health risks (GAO 2012). Historically, fossil fuel-based energy production and use have affected air quality and the climate, creating emissions of conventional air pollutants and greenhouse gases. As the use of natural gas has expanded, practices such as hydraulic fracturing have raised important questions about potential environmental and public health impacts (GAO 2012). Water quality and quantity are affected because water is needed to produce energy, and the process of producing energy can potentially lead to water contamination. Because energy is central to a strong economy, the quest for cleaner energy sources has driven new technologies to convert sunlight, wind, or geothermal energy into electricity. Likewise, federal regulations related to energy—along with social dimensions such as consumer preference for clean energy—are driving the changing energy landscape. Scientists must be prepared to understand the full scope of these drivers and provide the research and technical knowledge to illuminate the risks and benefits and guide energy policies.
Land use. The health and well-being of a community is closely coupled with land use and development. From inner cities to rural farming communities, quality of life and environment can depend upon land use policies. Land use decisions about roads and transportation systems, industrial siting and development, agricultural land use and the provision of community access to healthy and sustainable food, housing, and open space for parks and recreation can all impact human health. The distribution of green space in populated areas is a factor in physical activity, stress, and related physical and mental health issues (Lee and Maheswaran 2010; Lachowycz and Jones 2013). By influencing social interaction and the variety, density, and accessibility of necessities and amenities, decisions regarding land use planning affect well-being through community vibrancy and the autonomy of marginalized populations (Jackson 2003). Land use decisions can drive cascading events that may adversely impact ecological and human health. For example, land use decisions can influence fire risk (Butsic et al. 2015), and wildland fires can alter the landscape, increase erosion, and foster runoff (Morrison and Kolden 2015). Resulting wildland fire smoke, a mixture of gases and fine particles, can cause respiratory illness and aggravate chronic heart and lung diseases (U.S. EPA 2003; Rappold et al. 2011).
Water quantity and quality. About 400 billion gallons of water are used each day in the United States, and we face many challenges in maintaining the safety and sustainability of these water resources (U.S. EPA 2015d). For example, emerging chemical contaminants, such as perfluorinated compounds, found nationwide in water supplies, may not be removed by conventional water treatment or addressed by policy or regulatory actions (Sedlak 2016). An aging water system infrastructure has led to an estimated 240,000 water main breaks in the United States annually (ASCE 2013), which can only exacerbate water shortages. The recent water crisis in Flint, Michigan, where lead leached from pipes in older drinking water systems and reached levels that exceeded regulatory limits, also highlighted the importance of proper treatment of source water to prevent such occurrences (Bellinger 2016). Harmful algal blooms (HAB), a natural phenomenon, can be influenced by anthropogenic forces and climate change: and expanding human populations could impact HAB occurrence and public health impacts (Berdalet et al. 2015). Drought is a concern for many communities, and the effects of climate change are expected to increase the frequency, intensity, and duration of droughts in many regions (White House 2016). These examples are just a few of the many challenges threatening the safety and sustainability of the water supply in the United States.
Connecting the Dots—A Systems Approach to Environmental Protection
Environmental challenges have historically been managed with compartmentalized and pollutant specific, risk-based approaches. Although such approaches were successful in addressing part of the problem in the past, they are ill-suited to solve today’s wicked environmental challenges. Rather, today’s problems call for a systems approach that looks at a problem holistically, includes all the drivers and stressors that affect it and the dimensions that frame it, and integrates information from human health and ecological sciences and the social sciences to formulate sustainable solutions to environmental issues.
To understand the links between public health, the environment, and society, the interactions of factors within a complex system must be evaluated in a realistic way, regardless of its size, which can range from the scale of the molecule to that of the biosphere (global ecosystem) (Figure 1). Systems thinking considers the cumulative effects of multiple stressors, evaluates a range of alternatives, analyzes upstream and downstream life-cycle implications, involves a broad range of stakeholders, and uses interdisciplinary scientific approaches (NRC 2012). Systems approaches are not new, and the scientific literature provides many examples (Powers et al. 2012; Briggs 2008; Fiksel 2006). In public health, Guyer (1997) describes a systems process for problem solving that first defines the problem and measures its magnitude, then develops a framework for evaluating the key determinants (biologic, epidemiologic, social, cultural, economic, and political). Contemporary assessments stress the need for systems thinking. For example, a health impact assessment (HIA) uses a systems approach to array data sources and analytic methods and considers input from stakeholders to determine potential effects of a proposed action or decision on the health of a population and the distribution of those effects within the population (NRC 2011). Likewise, a life-cycle assessment uses systems approaches to evaluate a cradle-to-grave process, including all stages of a product’s life from the perspective that they are interdependent (U.S. EPA 2006).
Figure 1. Nested systems from the molecular level to the biosphere.
The Tools of 21st-Century Science and Technology
Concurrent with the changing nature of environmental issues, science and technology are evolving rapidly and offering new tools and methods of analysis needed in taking a systems approach to a problem. For example, modeling real-world scenarios can inform our understanding of interactions within a system, which helps forecast possible intervention outcomes. Computational models, which use and integrate data from many sources to understand and predict system dynamics and impacts of environmental pollutants, have become central to environmental decision-making (NRC 2007). Computational science provides more information than ever before along with the means for analyzing what the information means. The Toxicology Testing in the 21st Century (Tox21), a federal collaborative program that develops high-throughput assays to efficiently test a chemical’s potential to cause adverse health effects (U.S. EPA 2015c), is anticipated to deliver a wealth of information about the potential effects of tens of thousands of chemicals (Attene-Ramos et al. 2013). Computational exposure science, which integrates advances in chemistry, computer science, mathematics, statistics, and social and behavioral sciences with new models and data collection methods, will provide tools to better understand population exposures and link exposures to health outcomes (Egeghy et al. 2016).
Changes in technology have spurred the development of low-cost compact sensors for measuring environmental parameters and indicators of health (Kumar et al. 2015; Murphy et al. 2014; Chan et al. 2012). These sensors can be deployed in multiple locations to monitor pollutant concentrations around a facility or community more accurately than is possible with single stationary monitors (Snyder et al. 2013). Satellite technology can enhance air quality forecasting, emissions estimation, and exposure assessment for human health studies (Hoff and Christopher 2009). The availability of personal computers, mobile phones, and Internet access has revolutionized the communication of information and ideas. Citizen science, which encourages public participation in the scientific process (Kalil and Wilkinson 2015), provides a new way to engage the public in solving problems. Crowdsourcing—an open call for voluntary assistance from a large group of individuals (Kalil and Wilkinson 2015)—can help collect information at large geographic scales and over long periods of time.
These technological advances will yield enormous volumes of complex data, both structured and unstructured, originating from different sources. Big data may revolutionize how we monitor environmental quality and understand how humans interact and respond to the environment (Kays et al. 2015) and how the environment responds to human activity (Dagliati et al. 2015). However, the analysis of and need for access and discoverability of big data presents challenges that include protecting individual interests and privacy, managing enormous volumes of data, identifying the most important types of data, understanding data quality, integrating data into a form to analyze and guide decisions, and making the information publically accessible in forms that can be shared and combined for analysis.
Moving to the Future
Moving forward, we need a new comprehensive approach to solve environmental challenges that a) begins with strong problem formulation, b) relies on systems approaches and tools to integrate different types of data from multiple disciplines, c) draws on information generated from new technologies, and d) considers novel sources of data, such as citizen science. Evolving from case experiences, tools, and approaches developed over the years, we propose adopting a new framework (Figure 2) for environmental science that uses a systems approach to integrate ecological and human health information to solve environmental challenges. This framework includes the following elements and considers vested partners, communities, scientists, decision makers, and the public, and the need for science translation, education, and communication. Table 1 describes each element, summarizes the approaches, and provides examples of tools designed to facilitate its use.
Figure 2. Framework for applying integrated science to protect the environment and public health and well-being.
Table 1. Considerations, information sources, tools, and approaches for framework elements.
Formulate the problem holistically. Environmental health problems should be framed within a systems context and should consider ecological, health, social, and economic factors across space and time. Interactions, interdependencies, and cumulative effects are considered, as are the values and goals of vested partners, including the community and the public. By engaging end users early in the process, information and solutions will be more responsive and relevant to their needs. Formulating the problem holistically will improve understanding of potential unanticipated outcomes. Tools and guidance for problem formulation exist. For example, Suter (1993) described the process of creating a conceptual model for ecological risk assessments. This approach can help inform our understanding of system linkages, points of potential intervention, and the information needed to inform policy decisions. Gregory et al. (2012) and Yee et al. (2015) proposed a structured decision-making process, and Bruins et al. (2010) demonstrated the use of problem formulation for addressing complex socio-environmental problems. The U.S. EPA’s “Framework for Human Health Risk Assessment to Inform Decision-Making” (U.S. EPA 2014b) describes the importance of problem formulation and provides information to consider during this process.
Gather and synthesize diverse information. Guided by problem formulation, the next step is to identify diverse data and information needed to support the assessment. Economic, social, and environmental information should be considered, including socioeconomic status, health, cultural resources, local knowledge, traditions and practices, and existing conditions of the built and natural environment. For example, a more holistic model based on a systems approach was recently proposed for improving children’s environments and health across developmental life stages (Tulve et al. 2016). Various tools can inform this step. Ideally, they should be discoverable and widely accessible to users in web-based formats. For example, the “Community-Focused Exposure and Risk Screening Tool” (C-FERST; https://www.epa.gov/c-ferst), a community mapping, information access tool, can inform community assessments and decision-making (Zartarian et al. 2011). “EnviroAtlas,” an interactive mapping tool, can be used to explore the benefits people receive from nature (Pickard et al. 2015). The EnviroAtlas Eco-Health Relationship browser (https://www.epa.gov/enviroatlas/enviroatlas-eco-health-relationship-browser) provides information about how health issues are linked to the metrics of ecosystem services—the societal benefits from nature that underpin almost every aspect of human well-being (Jackson et al. 2013; U.S. EPA 2015d). The “Environmental Quality Index” (EQI) provides a metric for overall environmental quality that incorporates air, water, land, the built environment, and sociodemographics (U.S. EPA 2014a).
Develop and assess options. This step helps inform understanding of the consequences of potential decisions under consideration. The benefits and risks of options should be assessed and tradeoffs and costs (monetary and nonmonetary) should be examined under different scenarios. The priorities and concerns of the community and stakeholders should be considered. This step also includes estimating the distribution of impacts or consequences (positive and negative) across the population, including at-risk populations such as children, older adults, pregnant and nursing women, and indigenous people, while considering population vulnerability versus individual risk. At this point, feasible near- and long-term actions that mitigate negative impacts and promote sustainability and resiliency are identified. A variety of traditional and newer tools can be applied. For example, human health and ecological risk assessment will add valuable information about the impacts of various stressors. HIA can provide a structure for assembling information and assessing options, as can structured decision-making (Gregory et al. 2012; Yee et al. 2015). A web-based decision analysis framework called “Decision Analysis for a Sustainable Environment, Economy, and Society” (DASEES) can help inform this process (Yeardley et al. 2011). Environmental justice analysis, using mapping tools like C-FERST, EnviroAtlas, and “EJ-SCREEN: Environmental Justice Screening and Mapping Tool” (http://www.epa.gov/ejscreen), can provide valuable information about sensitive populations and population risk.
Implement sustainable solutions. Here, the suite of actions to implement solution(s) is selected. Solutions may range from improved infrastructure to interventions to behavioral changes. Implementers may include government agencies, state or local governments, or other stakeholders. These actions might include short- or long-term elements such as installation of a green street to reduce localized flooding combined with development of an area-wide plan for green infrastructure to improve overall water flow in a community. Communicating the scientific basis of solutions to decision makers, communities, and other stakeholders is essential. Ensuring transparency is crucial, as is engaging and empowering communities with knowledge, tools, data, and information.
Monitor and evaluate results. This step evaluates whether the approach provided sufficient information to identify, compare, and implement solutions and whether the chosen solution has the desired short- and long-term positive effects. Certain indicators or data sets could be used to reflect changes in environmental conditions or human health and well-being over time. For example, the “EPA Report on the Environment” provides indicators of national trends in air, water, land, human exposure and health, and ecological condition (U.S. EPA 2015c), and the EQI provides a single index of environmental quality that accounts for the multiple domains of the environment that encompass an area where humans interact (Lobdell et al. 2011). The “EnviroAtlas” may be useful for monitoring and evaluating solutions at various spatial scales. Consideration should also be given to whether unconventional data sources—such as citizen science—can inform evaluation.
Environmental protection in today’s world requires recognition of the interconnection of our environmental systems. This framework provides a structure to address today’s complex problems by considering multiple dimensions and a variety of data sources—a systems approach. Similar frameworks exist and have provided the basis for this approach (Reis et al. 2013; Powers et al. 2012; Briggs 2008). However, this framework represents an evolution of what has been proposed and used to date, and it provides a construct through which environmental and public health scientists can conduct future research, both fundamental and translational, to inform tomorrow’s solutions. We acknowledge the tension between using this framework and traditional approaches, including those driven by regulatory statutes and policies. We are not recommending replacement of those policies that have led to measurable progress. Rather, we recommend systems thinking as a path to enrichment of the scientific basis for decision-making to address wicked problems by creating opportunities for new partnerships and enhancing collaboration across traditional media-specific silos.
Recommendations for Framework Implementation
- Problem formulation as a key step toward integrating science to support systems-based problem solving. The framework presented here is grounded in strong problem formulation. This step is essential for successfully assessing issues and formulating and evaluating options. The environmental science community should be trained in approaches to problem formulation, and environmental and public health organizations should seek opportunities to incorporate problem formulation in their scientific approaches.
- Integrate additional skill sets into environmental problem solving. Informing solutions to complex environmental problems requires insight, expertise, and viewpoints from many scientific disciplines, along with policy makers, public officials, and community stakeholders. Traditionally, the fields of ecology, toxicology, and engineering have been predominant in environmental science. To conduct systems-based science, scientific teams will also need to include public health practitioners, earth scientists, economists, behavioral and other social scientists, database managers, programmers, software engineers, planners, physicians, systems analysts/experts, and science communicators.
- Make systems approaches core in the education of future scientists and decision-makers. Traditional training in environmental science has taken a reductionist approach to focus on specific mechanisms of a stressor and its effect on an ecosystem or human health. However, science students today are increasingly trained to look at the system and embrace cross-disciplinary problem solving. Current and future environmental scientists will need to be trained on systems approaches for conducting science and solving problems. A compilation of systems-based tools and examples of how systems approaches can be applied to inform sustainable solutions will help ensure that environmental scientists are adequately trained.
- Use effective science communication to ensure that decision makers and communities understand and accept the science. This framework requires scientists to work closely with vested partners and decision makers and ensure the science is translated and communicated throughout the process. As with the division of risk assessment and risk management articulated by NRC (1983), scientists typically do not choose a solution or make a policy or risk management decision. Therefore, it is critical that the science is communicated clearly and that decision-makers and vested partners are educated about the science. Science communication experts will be needed, and scientists will need to be better trained in effective communication.
U.S. EPA authorities have successfully managed gross pollution problems using command and control media-specific approaches. The health of our rivers has improved, the vast majority of Americans have access to safe and clean drinking water, exposure to many toxic pollutants and pesticides has been reduced, and nationwide air quality has improved significantly for many air pollutants (U.S. EPA 2012). However, today’s environmental problems are daunting. Their dimensions go well beyond the traditional risk assessment and risk management paradigm that has been the basis of environmental protection over the past several decades. It is time to embrace a new way of thinking. From safe drinking water to energy choices and pest management, to urban design, systems approaches can help inform sustainable solutions that ensure environmental and public health protection. In times of emergency response, systems approaches will help us understand the multiple dimensions of the situation, how the environment and human health are impacted, and how various solutions may address the issue or potentially cause unanticipated consequences. Wicked problems require thoughtful synthesis of science and decision-making. The framework proposed here provides a much-needed structure, grounded in strong problem formulation, to build upon our progress and strengthen environmental and public health protection for the future.
ASCE (American Society of Civil Engineers). 2013. 2013 Report Card for America’s Infrastructure. http://www.infrastructurereportcard.org/a/#p/drinking-water/overview [accessed 13 July 2016].
Attene-Ramos MS, Miller N, Huang R, Michael S, Itkin M, Kavlock RJ, et al. 2013. The Tox21 robotic platform for the assessment of environmental chemicals—from vision to reality. Drug Discov Today 18(15–16):716–723, doi: 10.1016/j.drudis.2013.05.015.
Bellinger DC. 2016. Lead contamination in Flint — an abject failure to protect public health. N Engl J Med 374(12):1101–1103, doi: 10.1056/NEJMp1601013.
Berdalet E, Fleming LE, Gowen R, Davidson K, Hess P, Backer LC, et al. 2015. Marine harmful algal blooms, human health and wellbeing: challenges and opportunities in the 21st century. J Mar Biol Assoc U.K. 96(1):61–91, doi: 10.1017/S0025315415001733.
Briggs DJ. 2008. A framework for integrated environmental health impact assessment of systemic risks. Environ Health 7:61, doi: 10.1186/1476-069X-7-61.
Bruins RJF, Munns WR Jr, Botti SJ, Brink S, Cleland D, Kapustka L, et al. 2010. A new process for organizing assessments of social, economic, and environmental outcomes: case study of wildland fire management in the USA. Integr Environ Assessment Manag 6(3):469–483, doi: 10.1897/IEAM_2009-075.1.
Butsic V, Kelly M, Moritz MA. 2015. Land use and wildfire: a review of local interactions and teleconnections. Land 4(1):140–156, doi: 10.3390/land4010140.
Chan M, Estève D, Fourniols JY, Escriba C, Campo E. 2012. Smart wearable systems: current status and future challenges. Artif Intell Med 56(3):137–156, doi: 10.1016/j.artmed.2012.09.003.
Dagliati A, Marinoni A, Cerra C, Decata P, Chiovato L, Gamba P, Bellazzi R. 2015. Integration of administrative, clinical, and environmental data to support the management of type 2 diabetes mellitus: from satellites to clinical care. J Diabetes Sci Technol 10(1):19–26, doi: 10.1177/1932296815619180.
Egeghy PP, Sheldon LS, Isaacs KK, Özkaynak H, Goldsmith MR, Wambaugh JF, et al. 2016. Computational exposure science: an emerging discipline to support 21st-century risk assessment. Environ Health Perspect 124(6):697–702, doi: 10.1289/ehp.1509748.
Fiksel J, Bruins R, Gatchett A, Gilliland A, ten Brink M. 2014. The triple value model: A systems approach to sustainable solutions. Clean Technol Environ Policy 16(4):691–702, doi: 10.1007/s10098-013-0696-1.
GAO (U.S. Government Accountability Office). 2012. Oil and Gas: Information on Shale Resources, Development, and Environmental and Public Health Risks. GAO-12-732. September 2012. http://www.gao.gov/products/GAO-12-732 [accessed 20 December 2016].
Hoff RM, Christopher SA. 2009. Remote sensing of particulate pollution from space: have we reached the promised land? J Air Waste Manag Assoc 59(6):645–675, doi: 10.3155/1047-32220.127.116.115.
Jackson LE, Daniel J, McCorkle B, Sears A, Bush KF. 2013. Linking ecosystem services and human health: the Eco-Health Relationship Browser. Int J Public Health 58:747–755, doi: 10.1007/s00038-013-0482-1.
Kalil T, Wilkinson D. 2015. Accelerating Citizen Science and Crowdsourcing to Address Societal and Scientific Challenges. Executive Office of the President, Washington, DC. https://www.whitehouse.gov/blog/2015/09/30/accelerating-use-citizen-science-and-crowdsourcing-address-societal-and-scientific [accessed 13 May 2016].
Kays R, Crofoot MC, Jetz W, Wikelski M. 2015. Terrestrial animal tracking as an eye on life and planet. Science 348(6240):aaa2478-1–aaa2478-9, doi: 10.1126/science.aaa2478.
Kumar P, Morawska L, Martani C, Biskos G, Neophytou M, Di Sabatino S, et al. 2015. The rise of low-cost sensing for managing air pollution in cities. Environ Int 75:199–205, doi: 10.1016/j.envint.2014.11.019.
Lachowycz K, Jones AP. 2013. Towards a better understanding of the relationship between greenspace and health: development of a theoretical framework. Landscape Urban Plann 118:62–69, doi: 10.1016/j.landurbplan.2012.10.012.
Lee ACK, Maheswaran R. 2010. The health benefits of urban green spaces: a review of the evidence. J Public Health (Oxf) 33(2):212–222, doi: 10.1093/pubmed/fdq068.
Lobdell DT, Jagai JS, Rappazzo K, Messer LC. 2011. Data sources for an environmental quality index: availability, quality, and utility. Am J Public Health 101(suppl 1):S277–S285, doi: 10.2105/AJPH.2011.300184.
McCabe JG, Burke TA. 2016. Reducing risk by acting on climate. Health Secur 14(2):43–46, doi: 10.1089/hs.2016.0006.
Morrison KD, Kolden CA. 2015. Modeling the impacts of wildfire on runoff and pollutant transport from coastal watersheds to the nearshore environment. J Environ Manage 151:113–123, doi: 10.1016/j.jenvman.2014.12.025.
Murphy K, Heery B, Sullivan T, Zhang D, Paludetti L, Lau KT, et al. 2014. A low-cost autonomous optical sensor for water quality monitoring. Talanta 132:520–527, doi: 10.1016/j.talanta.2014.09.045.
NRC (National Research Council). 1983. Risk Assessment in the Federal Government: Managing the Process. Washington, DC:National Academies Press. https://www.nap.edu/catalog/366/risk-assessment-in-the-federal-government-managing-the-process [accessed 20 December 2016].
NRC. 2007. Models in Environmental Regulatory Decision Making. Washington, DC:National Academies Press. https://www.nap.edu/catalog/11972/models-in-environmental-regulatory-decision-making [accessed 20 December 2016].
NRC. 2011. Improving Health in the United States: The Role of Health Impact Assessment. Washington, DC:National Academies Press. https://www.nap.edu/catalog/13229/improving-health-in-the-united-states-the-role-of-health [accessed 20 December 2016].
NRC (National Research Council). 2012. Science for Environmental Protection: The Road Ahead. Washington, DC:National Academies Press. https://www.nap.edu/catalog/13510/science-for-environmental-protection-the-road-ahead [accessed 20 December 2016].
Phillips D, Boumans R, Victery W, Fontaine T. 2014. Climate change effects on ecosystem services and human health. Washington DC:A Community on Ecosystem Services, December 8-12, 2014. https://cfpub.epa.gov/si/si_public_record_report.cfm?dirEntryId=299092&fed_org_id=858&SIType=PR&TIMSType=&showCriteria=0&address=nheerl/pubs.html&view=citation&sortBy=pubDateYear&count=100&dateBeginPublishedPresented=01/01/2010 [accessed 19 May 2016].
Pickard BR, Daniel J, Mehaffey M, Jackson LE, Neale A. 2015. EnviroAtlas: a new geospatial tool to foster ecosystem services science and resource management. Ecosyst Serv 14:45–55, doi: 10.1016/j.ecoser.2015.04.005.
Powers CM, Dana G, Gillespie P, Gwinn MR, Hendren CO, Long TC, et al. 2012. Comprehensive environmental assessment: a meta-assessment approach. Environ Sci Technol 46(17):9202–9208, doi: 10.1021/es3023072.
Ramsey K, Bell A. 2014. The Smart Location Database: a nationwide data resource characterizing the built environment and destination accessibility at the neighborhood scale. Cityscape: J Policy Dev Res 16(2):145–162. https://www.huduser.gov/portal/periodicals/cityscpe/vol16num2/ch11.pdf [accessed 20 December 2016].
Rappold AG, Stone SL, Cascio WE, Neas LM, Kilaru VJ, Carraway MS, et al. 2011. Peat bog wildfire smoke exposure in rural North Carolina is associated with cardiopulmonary emergency department visits assessed through syndromic surveillance. Environ Health Perspect 119(10):1415–1420, doi: 10.1289/ehp.1003206.
Rehr AP, Small MJ, Fischbeck PS, Bradley P, Fisher WS. 2014. The role of scientific studies in building consensus in environmental decision making: a coral reef example. Environ Syst Decis 34(1):60–87, doi: 10.1007/s10669-014-9491-8.
Reis S, Morris G, Fleming LE, Beck S, Taylor T, White M, et al. 2013. Integrating health and environmental impact analysis. Public Health 129(10):1383–1389, doi: 10.1016/j.puhe.2013.07.006.
Rittel HWJ, Webber MM. 1973. Dilemmas in a general theory of planning. Policy Sci 4(2):155–169, doi: 10.1007/BF01405730.
Sedlak D. 2016. Fool me once. Environ Sci Technol 50(15):7937–7938, doi: 10.1021/acs.est.6b03367.
Snyder EG, Watkins TH, Solomon PA, Thoma ED, Williams RW, Hagler GS, et al. 2013. The changing paradigm of air pollution monitoring. Environ Sci Technol 47(20):11369–11377, doi: 10.1021/es4022602.
Stahl CH. 2014. Out of the Land of Oz: the importance of tackling wicked environmental problems without taming them. Environ Syst Decis 34:473–477, doi: 10.1007/s10669-014-9522-5.
Tulve NS, Ruiz JDC, Lichtveld K, Darney SP, Quackenboss JJ. 2016. Development of a conceptual framework depicting a child’s total (built, natural, social) environment in order to optimize health and well-being. J Environ Health Sci 2(2):1–8, doi: 10.15436/2378-6841.16.1121.
United Nations. 2015. Paris Agreement. http://unfccc.int/files/essential_background/convention/application/pdf/english_paris_agreement.pdf [accessed 13 July 2016].
U.S. EPA (U.S. Environmental Protection Agency). 2003. AirNow. How Smoke from Fires Can Affect Your Health. EPA-452/F-02-002. Research Triangle Park, NC. https://www3.epa.gov/airnow/smoke/Smoke2003final.pdf [accessed 6 June 2016].
U.S. EPA. 2006. EPA Science Inventory. Life Cycle Assessment: Principals and Practice. EPA/600/R-06/060. Washington, DC:U.S. EPA. https://cfpub.epa.gov/si/si_public_record_report.cfm?dirEntryId=155087 [accessed 20 December 2016].
U.S. EPA. 2012. Our Nation’s Air: Status and Trends Through 2010. Office of Air and Radiation. EPA-454/R-12-001. https://www3.epa.gov/airtrends/2011/report/fullreport.pdf [accessed 6 June 2016].
U.S. EPA. 2014a. Environmental Quality Index: Overview Report. EPA 600/R-14/305. https://cfpub.epa.gov/si/si_public_record_report.cfm?dirEntryId=316570 [accessed 20 December 2016].
U.S. EPA. 2014b. Framework for Human Health Risk Assessment to Inform Decision Making. EPA/100/R-14/001. https://www.epa.gov/sites/production/files/2014-12/documents/hhra-framework-final-2014.pdf [accessed 6 June 2016].
U.S. EPA. 2015a. Air, Climate, and Energy: Strategic Research Action Plan, 2016–2019. EPA 601/K-15/005. https://www.epa.gov/sites/production/files/2015-10/documents/strap_2016_ace_508.pdf [accessed 14 July 2016].
U.S. EPA. 2015b. Climate Change in the United States: Benefits of Global Action. EPA 430-R-15-001. https://www.epa.gov/sites/production/files/2015-06/documents/cirareport.pdf [accessed 6 June 2016].
U.S. EPA. 2015c. EPA’s Report on the Environment. http://cfpub.epa.gov/roe/ [accessed 13 May 2016].
U.S. EPA. 2015d. Health Impact Assessment (HIA) & EnviroAtlas: Integrating Ecosystem Services into the Decision-Making Process. EPA/600/RR-15/128. https://www.epa.gov/sites/production/files/2015-08/documents/hia_guide_final_pdf.pdf [accessed 6 June 2016].
White House. 2016. Long-term Drought Resilience: Federal Action Plan of the National Drought Resilience Partnership. https://www.whitehouse.gov/sites/default/files/docs/drought_resilience_action_plan_2016_final.pdf [accessed 13 July 2016].
Yeardley RB Jr, Dyson B, Tenbrink M. 2011. EPA Growing DASEES (Decision Analysis for a Sustainable Environment, Economy & Society) – To Aid in Making Decisions on Complex Environmental Issues. Washington, DC:U.S. EPA. EPA/600/F-11/023, 2011. https://cfpub.epa.gov/si/si_public_record_report.cfm?dirEntryId=238232 [accessed 20 December 2016].
Yee SH, Carriger JF, Bradley P, Fisher WS, Dyson B. 2015. Developing scientific information to support decisions for sustainable coral reef ecosystem services. Ecol Econ 115:39–50, doi: 10.1016/j.ecolecon.2014.02.016.
Zartarian VG, Schultz BD, Barzyk TM, Smuts MB, Hammond DM, Medina-Vera M, et al. 2011. The Environmental Protection Agency’s Community-Focused Exposure and Risk Screening Tool (C-FERST) and its potential use for environmental justice efforts. Am J Public Health 101(suppl 1):S286–S294, doi: 10.2105/AJPH.2010.300087.
We are pleased to announce our new impact factor of 9.78, up from 8.44 last year. Based on our impact factor, EHP is now #4 out of 229 Environmental Science journals, #4 out of 176 Public, Environmental & Occupational Health journals, and #2 out of 92 Toxicology journals. Thanks to all the authors, reviewers, readers, and EHP staff who have contributed to our success.
EHP is pleased to announce that it is now operating under a continuous publication workflow! As indicated in a previous announcement, continuous publication allows EHP to post new content online throughout the month, as each paper becomes ready for an issue. This gets content out to our readers much more quickly than the old issue-based model, and unlike our previous Advance Publication model, these are final, edited articles. (more…)