Fiscal Year 2017 Superfund Budget
Section 311(a) of the Comprehensive Environmental, Response, Compensation, and Liability Act of 1980, as amended, and Section 126(g) of the Superfund Amendments and Reauthorization Act of 1986.
Budget Authority (BA)
|FY 2015 Actual||FY 2016 Enacted||FY 2017 President's Budget||FY 2017
FTEs are included with the regular NIEHS appropriation.
Program funds are allocated as follows: Competitive Grants/Cooperative Agreements and Other.
The National Institutes of Health (NIH)/National Institute of Environmental Health Sciences (NIEHS) Hazardous Substance Basic Research and Training Program, or Superfund Research Program (SRP), and the NIH/NIEHS Superfund Worker Training Program (WTP) were created under the Superfund Amendments and Reauthorization Act (SARA) of 1986 to meet the need for innovative strategies and technologies to provide solutions to the magnitude and complexity of Superfund assessment and remediation. SRP fosters multidisciplinary research, fundamental creative discoveries, and innovative research strategies focused on solving problems related to Superfund sites. WTP provides health and safety training to hazardous waste cleanup workers and emergency responders. SRP and WTP address challenges posed by environmental contamination, such as health risks, prevention and intervention strategies, emergency response efforts, and cost-effective remediation related to hazardous waste found throughout the United States.
SRP funds scientific discovery through its ongoing support of translational research. For example, an SRP-funded small business, Blue Planet Strategies, developed and patented the Dynamic Electrolytic Mine Effluent Treatment (DEMET) technology, which uses electricity to effectively concentrate copper from waste generated as a result of mining operations. The concentrated product can then be used in conventional processing systems to recover copper.
Additionally, SRP strengthens and sustains community partnerships and training activities to reduce environmental public health risks. SRP-funded experts joined a community forum in Winston-Salem, North Carolina, to educate communities on two schools located over contaminated groundwater about the potential health effects of chemical exposures. After learning that harmful chemicals could be seeping into the air inside the schools, parents were naturally concerned about the effects of air quality on their children’s health. During the meeting with parents and school officials, grantees from SRP answered questions about the chemicals and the process of vapor intrusion into classrooms at the schools. This coordinated effort to provide technical assistance represents how well SRP functions as a research-focused, solution-oriented program. The SRP risk assessment information provided the school board critical information to protect the health of children.
Similarly, WTP continually seeks to cultivate a diverse, innovative, and productive group of trainees who are dedicated to protect themselves and their communities from exposure to hazardous materials encountered during hazardous waste operations, hazardous materials transportation, and environmental restoration of contaminated facilities or chemical emergency response, thereby supporting the NIH mission. WTP has a demonstrated track record of providing occupational safety and health education in developing and delivering high-quality training to workers who are involved in handling hazardous waste or who are involved in responding to emergencies concerning releases of hazardous materials. Since 1987, WTP has developed a strong network of non-profit organizations that are committed to protecting workers and their communities by delivering high-quality, peer-reviewed safety and health curricula. Between August 2014 and July 2015, WTP awardees conducted over 9,400 courses for over 167,000 workers. Since the inception of WTP, nearly three million workers have been trained with a focus on protecting our communities.
Overall Budget Policy:
The FY 2017 President’s Budget request for NIEHS Superfund is $77.349 million, which is the same as the FY 2016 Enacted level.>
Program Descriptions and Accomplishments
SRP: Through an interdisciplinary and multidisciplinary research platform, SRP identifies, assesses, and evaluates the potential health effects of exposure to hazardous waste and develops innovative chemical, physical, and biological technologies for remediating sites contaminated by hazardous substances. Investigators from diverse fields study the underlying biological and environmental principles pertaining to some of the nation’s most difficult environmental problems.
SRP research provides essential groundwork for tackling newly defined hazards or preventing complex chronic diseases such as cancer. The Oregon State University SRP Center provides an example of how the SRP investments yield rewards and benefits to public health. Scientists there have developed a mechanism-based classification of polycyclic aromatic hydrocarbon (PAH) mixtures to predict carcinogenic potential. PAH’s are found throughout the environment and have potentially deleterious health effects. The Oregon SRP-funded researchers used a “source-to-outcome” model that predicts PAH interactions during tumorigenesis and illustrates how mode-of-action-based risk assessment could be employed for environmental PAH mixtures. For at least some PAH mixtures, the new method is not only quicker but produces more accurate cancer-risk assessments than are currently possible.
Understanding how early exposures to toxic substances affect disease progression is another area where SRP research is making progress. SRP-funded researchers at Dartmouth College led a team that measured arsenic in a previously under-recognized source – common foods. Arsenic exposure is associated with a diverse range of health effects, including several types of cancer, cardiovascular disease, and lung disease. Researchers detected significant concentrations of arsenic in organic brown rice syrup, used as an alternative to high fructose corn syrup in many foods, including toddler formulas. Their research inspired further studies of arsenic in the diet, and they are continuing to identify and quantify dietary sources of arsenic to better reduce exposures.
SRP is also leveraging new technology and the power of computers to enable researchers to gain insights into heretofore unidentified relationships among genes, environment, and behavior that may help explain susceptibility to and progression of disease. A new study by SRP-funded researchers at Boston University and the NIEHS National Toxicology Program (NTP) has shown that computational models of short-term exposure to a chemical can predict long-term cancer risk. The study is a step toward simpler and cheaper tests to screen chemicals for cancer risk.
SRP also develops cost-effective approaches to detect, remove, and/or reduce the amount of toxic substances found in the environment. At the University of Kentucky (UK), SRP-funded environmental science researchers have developed technologies that utilize responsive, functionalized membranes with catalytic particles for high throughput remediation of groundwater contaminated with organic pollutants, such as polychlorinated biphenyls (PCBs) and trichloroethylene (TCE). The UK Superfund Research Center Research Translation Core has facilitated the licensing of these technologies to ULTURA in Oceanside, California, for industrial production and high throughput filtration module development. These types of functionalized filters will enable faster throughput groundwater remediation at sites such as the Paducah Gaseous Diffusion Plant, which is highly contaminated with TCE. This technology, made possible through SRP funding, has been shown to both completely degrade these organic pollutants and eliminate their toxic effects.
University of Iowa SRP researchers have launched a partnership to clean up PCBs using phytoremediation, a process in which plants are used to contain, degrade, or eliminate contaminants from soils and water. Working with the town of Altavista, Virginia, and Ecolotree Inc., a small business focusing on phytoremediation, scientists are using poplar trees to reduce exposures from a PCB-contaminated lagoon. They are also studying the processes that influence PCB containment and detoxification by the poplar trees, with the goal of minimizing airborne exposures and reducing health risks to the community. Researchers have also found that switchgrass, a plant native to central North America, can effectively remove PCBs from contaminated soil. When PCB-degrading bacteria are added, removal of PCBs from the soil can increase further. This phytoremediation method may be an efficient and sustainable strategy to removing PCBs from hazardous waste sites.
Nanomaterials made of cellulose – a natural polymer used mainly to produce paper – hold great promise in environmental remediation applications and water filtration membranes, according to Duke University SRP researchers. In a compilation of research findings, Duke SRP researchers outlined the physical and chemical properties, production costs, and current use of cellulose nanomaterials.
A significant goal for the SRP is to support research that will forge partnerships, generate training materials, and translate advances to communities that lead to improving the public’s health. The SRP Community Engagement and Research Translation Cores at the University of Arizona (UA) have partnered with Arizona tribal community colleges to develop six educational modules focused on tribal mining and associated environmental and sociocultural impacts: Copper Mining and Processing; Reclamation and Remediation; Environmental Impacts; Sociocultural Impacts; Uranium; and Tribal Consultation. More recently, UA SRP researchers weighed in on the recent Gold King Mine Spill, which spilled approximately three million gallons of polluted mine waste water into a tributary of the Animas River in Colorado. UA SRP researchers also put together a brief, “Understanding the Gold King Mine Spill,” to explain the extent of the accident, the effects of the spill, and what is being done to control it. This helps community members better understand the potential health and environmental risks to protect themselves and families.
The use of brownfields for urban agriculture can protect the environment and help families with lower socioeconomic status gain access to fresh fruits and vegetables, and, thus, support the fight against obesity. But the potential uptake of toxicants by edible plants in urban brownfields poses environmental public health risks. The SRP-funded University of California, San Diego (UCSD) Center has collaborated with the City of San Diego and the Environmental Protection Agency (EPA) to transform a vacant brownfield site into a community garden. Working with local residents, SRP-funded grantees at UCSD created an environmental learning center that provides residents with answers to their questions about toxicants, cumulative risk, and bioavailability. SRP grantees analyzed plant tissues from the community garden on the brownfield site using inductively coupled plasma-mass spectrometry to monitor metal accumulation in these plants. They are also analyzing how storm water retention structures at the community garden may impact the fate and transport of toxicants by measuring how soil contaminants change over time within the context of storm water management. Results of the site assessments and plant analysis will be presented to the community. Jointly, these efforts are bringing together key leaders from academia, private sector, government, and nonprofit organizations to critically examine urban agriculture’s potential to increase food security in ways that also promote environmental public health and the greening of infrastructure for pollution prevention and bioremediation.
Budget Policy: The FY 2017 President’s Budget estimate for SRP is $46.479 million, which is the same as the FY 2016 Enacted level.
Program Portrait: Our Water, Our Health
|FY 2016 Level:||$13.0 million|
|FY 2017 Level:||$13.2 million|
As states grapple with drought of epic proportions, as well as natural disasters that impact water quality, SRP takes a multi-disciplinary look at all aspects of water. SRP tackles health impacts of water contamination, develops solutions to reduce exposures, and applies innovative remediation technologies to protect water resources from the impact of hazardous substances.
A first step in public health research is identifying exposures that may cause harm. SRP-funded research at the Harvard School of Public Health provided insight into the implications of drinking water contaminants - such as lead, arsenic, and manganese – identifying neurotoxic risks of both low and high-dose exposures. At Boston University, SRP researchers have determined that early-life exposure to tetrachloroethylene (also known as perchloroethylene or “PERC”) in drinking water may increase the risk of epilepsy and certain types of cancer into adulthood. PERC is a solvent frequently used in dry cleaning solutions, adhesives, metal degreasers, and other commercial products. In another study, University of Arizona SRP-supported researchers found that in utero and early-life exposure to arsenic through drinking water was associated with poor lung function in children. Although several studies have reported more respiratory symptoms and diseases in people highly exposed to arsenic through drinking water, this is one of the first studies to look at early-life arsenic exposure and lung function in children. Based on the results of the study, the researchers say that controlling exposure to arsenic during critical early-life lung development may be important for reducing deficits in lung function tied to arsenic exposure.
Detection of contaminants is also an important part of protecting water resources. For example, SRP grantees are developing ways to measure lead, TCE, perchlorate, arsenic, and many other pollutants that include, for example, easy-to-use test strips for lead that can be applied to a number of exposure scenarios.
A subsequent step in the progression of public health research is to determine methods to prevent or reduce harmful exposures. At Columbia University, SRP-funded research has discovered ways to improve the cleanup of arsenic from contaminated aquifers at Superfund sites. This research suggests that a single injection of safe, inexpensive compounds into groundwater could form a barrier to trap dissolved arsenic for 10-20 years, greatly reducing the threat of groundwater contamination. SRP researchers continue to use lab and field experiments to increase the efficiency of their strategy to immobilize arsenic in aquifers and to better understand its long-term use.
University of California, Berkeley SRP researchers are developing a compact and inexpensive treatment system that has the potential to be employed for wellhead treatment or point-of-use treatment in situations where water is contaminated with organic chemicals. The system has numerous advantages over existing approaches because it can be operated without the need to replenish reagents or replace materials (e.g., as is the case with activated carbon). Additional research is being conducted to test the long-term performance of the system, incorporate sensors, and reduce the cost of the electrodes.
Microvi, an NIEHS SRP-funded Small Business, is developing a first-of-its-kind biological approach for 1,4-dioxane degradation. The technology, called MB-DX, uses microbes that degrade 1,4-dioxane effectively and reliably. The approach also overcomes common challenges to bioreactor performance, such as system stability and clogging. The company has successfully developed a prototype, which is now being scaled-up and piloted at a contaminated site in California. A suspected carcinogen, 1,4-dioxane is difficult to remove with conventional water treatment technologies.
NIEHS Worker Training Program (WTP)
WTP: The major objectives of WTP are to prevent work-related harm by training workers in how best to protect themselves and their communities from exposure to hazardous materials encountered during hazardous waste operations, hazardous materials transportation, environmental restoration, or chemical emergency response, and to undertake brownfields, construction, and environmental workforce development training for disadvantaged communities. A variety of hazardous sites, such as those involved with chemical waste cleanup, remedial action, and transportation-related chemical emergency response, may pose severe health and safety concerns. These are often characterized by a multiplicity of substances present, the presence of unknown substances, and the general uncontrolled condition of the site. A major goal of WTP is to assist organizations in providing training and education programs in hazardous materials and disaster response.
To optimize its use of taxpayer funds, WTP manages resources through key partnerships across the Nation – with other Federal agencies, the private sector, and academic institutions. Through WTP training, municipalities’ capacity for response to everyday hazardous incidents is strengthened by collaborating with health departments, police, public safety, and fire fighters throughout the United States and with Tribal governments. The Midwest Consortium for Hazardous Waste Worker Training includes Lakeshore Technical College (LTC) in Cleveland, Wisconsin (WI). Regarding LTC training, a Boltonville Fire Department Emergency Responder stated, “On the evening of July 20, 2014, the Washington County Hazardous Materials response team was requested at the scene of a collision and derailment between two trains near the city of Slinger, WI. While there were fortunately no fatalities, the collision did result in the release of approximately 4,000 gallons of diesel fuel. The Emergency Response Technician training I received at LTC assisted me in responding, assessing the environment, and ensuring mitigation that was safe for responders and the environment.”
Another example of WTP training and partnerships is the Western Region University Consortium, led by the University of California, Los Angeles, which includes the University of Washington (UW). UW provided training and technical assistance, in conjunction with the EPA Region 10 Tribal Office, which effectively doubled the spill response capacity in the watershed region. This training included emergency response, hazardous materials transport, and oil spill cleanup, and was delivered in partnership with the Yukon River Inter-Tribal Watershed Council, an indigenous grassroots organization comprised of 52 tribes in the U.S./Alaska region and 14 First Nations in Canada, covering an estimated 321,500 square miles.
WTP-funded training is economically advantageous as workers are taught cost-effective preventive strategies, and the economic benefit of training that prevents or reduces the impact of a disaster can be substantial. WTP-funded Michigan State University training provided to members of an Emergency Response Team (ERT) at the Ford Kansas City Assembly Plant in Claymoco, Missouri, illustrates this fact. ERT donned Self-Contained Breathing Apparatus and entered a tunnel that ran underneath the plant to look for a leak in paint and solvent lines. During their investigation, they used air monitors to make sure the atmosphere was not flammable and found that approximately 200 gallons of solvent had leaked into the tunnel from one of the solvent lines causing the production line to stop. As a result of their training, the team was able to identify and isolate the leak allowing production to resume. They were able to save the Company $100,000 in lost production time.
Since 1995, through WTP support, Rutgers (New Jersey/New York Hazardous Materials Worker Training Consortium) has graduated over 560 “at-risk” individuals from the New York-New Jersey metropolitan region under the Environmental Career Worker Training Program. The Program has a successful placement rate of 80 percent and boasts an average post-training wage of over $16 per hour. In the 2012 program year, they found a substantial increase in income for program graduates. Prior to enrollment, participants were earning an average of $8.74 an hour, with an average annual income of less than $10,000 and 50 percent of enrollees receiving public benefits. For that same cohort, the average placement wage post-program was $17 an hour, with estimated annual earnings of $30,000, resulting in a dramatic economic increase for the families served.
Budget Policy: The FY 2017 President’s Budget estimate for WTP is $26.413 million, which is a decrease of $0.019 million or 0.1 percent compared to the FY 2016 Enacted level.
Program Portrait: Increasing the Nation’s Disaster Response Capabilities
|FY 2016 Level:||$0.5 million|
|FY 2017 Level:||$0.6 million|
Nationally, severe weather has impacted workers and their communities. WTP-funded trainers assist impacted communities following natural disasters by providing the latest information and training on best practices for the protection of volunteers, homeowners, and cleanup workers. The New Jersey/New York Hazardous Materials Worker Training Center, for example, is a leading provider of hazardous materials training in New Jersey. After Hurricane Sandy, the Center developed and implemented essential and high quality training across the state that afforded both public health professionals and homeowners prevention and protection strategies, especially related to mold awareness and remediation.
With WTP support, the United Steelworkers (USW) developed a cadre of 19 Special Emergency Response Trainers (SERTs). Of particular importance, they are now developing a new cadre of Spanish-speaking SERTs, adding a valuable skill set to the NIEHS WTP’s national disaster training capacity. This came after USW deployed SERTs for Hurricane Sandy and found that workers needed training in Spanish. There were virtually no Spanish-speaking Occupational Safety and Health Administration (OSHA)-authorized trainers readily available, even though there were nearly one million Spanish-speaking workers in the NY-NJ area. Since then, USW teamed up with “Make the Road New York” and the National Day Laborers Organizing Network to conduct a two-week OSHA course in Spanish. This produced 39 qualified worker trainers. The Assistant Secretary of Labor for OSHA said to the first graduating class of OSHA-authorized Spanish language trainers, “As the eyes and ears of OSHA, you help us protect your co-workers by letting OSHA know when employers may not be living up to their responsibilities.”
The WTP-supported Alabama Fire College Workplace Safety Training program extends training to fire, rescue, emergency medical, emergency management, and law enforcement agencies in the southeastern United States. In the last five-year cycle of grant funding (2010 to 2015), they held 29 classes. These classes give emergency responders skills that they can use on a moment’s notice in a natural disaster, such as the October flooding in South Carolina. In his letter of support for the Alabama Fire College WTP application, the Battalion Chief and Technical Rescue Coordinator for the Mt. Pleasant, SC, Fire Department (Charleston area) stated, “The Mt. Pleasant Fire Department has…been able to depend on high quality training at no cost to our department, in a period when budgets have been cut for specialty training. Your personnel have taught six confined space rescue (CSR) classes teaching approximately 60 Mt. Pleasant members and about 60 members of other local departments. The Charleston area is the home of 373,000 people, tens of thousands of businesses including a major seaport, covered by 14 fire departments. Your classes not only teach the fundamentals of the topics, but also make rescuers from each organization work together during mock scenarios. This helps with interdepartmental relationships. Without your help our department rescue program would not be as strong as it is currently. You provide a service that I cannot replace easily due to lack of funding.”