10 Questions You Should to Know about Fluorine Release Film

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Sep. 08, 2025

Top 10 Things You Should Know About PFAS: Real Estate and ...

Holland & Knight LLP
Meaghan A Colligan, Amy L. Edwards, Paul C Sarahan, Nicholas William Targ and Dianne R. Phillips

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May 1,

Per- and polyfluoroalkyl substances (PFAS) present a new and potentially expensive environmental risk in real estate and corporate deals. Regulators are focused on developing standards for PFAS across the country. However, it is still uncertain at the federal level, and in many states, how PFAS will be regulated and to what levels. New risk-based research continues to be released showing that certain strands may pose risks to health and the environment. Additionally, many large-scale lawsuits have been advanced in the past several years seeking damages for personal injury, property damage and recovery of remediation costs under federal environmental statutes. At least nine federal enforcement actions and dozens of state enforcement actions have been advanced related to PFAS to date. As such, PFAS poses a major risk in transactions that, if not managed, can result in significant liabilities.

This update from environmental practitioners in Holland & Knight’s PFAS Working Group provides the top 10 things you should know about PFAS, including what PFAS are; the current regulatory landscape; the litigation, enforcement and transactional risks that PFAS pose; what industries and properties may be affected by PFAS; and how PFAS liabilities can be mitigated. In essence, it is recommended that every real estate and corporate deal be reviewed for PFAS liability by an environmental practitioner, particularly because consultants performing Phase I environmental site assessments may not bring this risk to your attention because they are not required to, yet.

WHAT ARE PFAS?

PFAS are a family of more than 7,000 man-made chemicals containing fluorine and carbon atoms that have been used in a variety of industries around the globe since the s. Perfluorooctanoic acid (PFOA) and perfluorooctanesulfonic acid (PFOS) have been the most extensively produced and studied PFAS compounds. PFAS are frequently used because they have strong surfactant properties, meaning that they reduce the surface tension between a liquid and another liquid or solid, and are thus effective in fire resistant products and products that repel oil, stain, grease and water. They are also used in many manufacturing processes such as plastic extrusion to aid in releasing products from their molds.

WHICH MATERIALS MOST COMMONLY USE PFAS?

The first PFAS were invented in the s and were the main ingredients in nonstick and waterproof coatings. By the s, PFAS were used in architectural resins and aqueous film-forming foam (AFFF) — a foam mixture that rapidly extinguishes petroleum fires and other flammable-liquid fires. Today, more than 7,000 synthetic chemicals are classified as PFAS, and can be found in the following materials, among others:

  • petroleum and chemical firefighting foams, utilized on military and civilian ships, airplanes and airports, petroleum refineries and by bulk chemical transportation and storage facilities, for example
  • workplace products, including production facilities or industries (e.g. chrome plating, electronics manufacturing or oil recovery) that use PFAS
  • food packaging, such as grease-resistant microwave-popcorn bags, pizza boxes, fast-food wrappers, etc.
  • commercial household products, including stain- and water-repellent fabrics, nonstick products (e.g., Teflon), polishes, waxes, paints, carpets and cleaning products

WHICH INDUSTRIES USE PFAS?

Primary manufacturing facilities produce PFAS, and secondary manufacturing facilities use PFAS to produce goods and other facilities use PFAS products. The following sectors manufacture or utilize PFAS: airports, military installations, petroleum refineries, bulk chemical transporters or storage facilities, landfills and wastewater treatment plants, as well as textile, leather, paper, plastic and wire manufacturers.

HOW ARE PFAS CURRENTLY REGULATED?

U.S. Environmental Protection Agency (EPA): Neither Congress nor the EPA have designated PFAS individually or as a class as hazardous substances. As a result, EPA’s authority to clean up PFAS is limited. However, last year EPA Administrator Andrew Wheeler announced that the EPA had initiated nine enforcement actions related to PFAS and supported more than 20 state enforcement actions related to PFAS.

Following the issuance of EPA’s PFAS Action Plan in February , the agency initiated the regulatory process for listing PFOA and PFOS as hazardous substances under the Comprehensive Environmental Response, Compensation, and Liability Act (CERCLA or Superfund). That designation would trigger liability and cleanup requirements for responsible parties at existing Superfund and brownfield sites, and it may create new Superfund liabilities at other properties containing PFAS.

There is currently no drinking water standard promulgated under the Safe Drinking Water Act (SDWA), but EPA issued a drinking water Health Advisory of 70 parts per trillion (ppt) for the combined value of PFOS and PFOA in May . Following the issuance of the PFAS Action Plan, EPA began moving forward with developing maximum contaminant levels (MCLs) for PFOA and PFOS under the SDWA, and in February , EPA announced its preliminary regulatory determination that PFOA and PFOS should be regulated under the SDWA. EPA will be accepting comments on this preliminary regulatory determination for 60 days.

The eight largest manufacturers voluntarily had previously phased out production of PFOA and PFOS by through the EPA’s PFOA Stewardship Program. EPA’s PFAS Action Plan indicates that it may regulate production, import and use of additional PFAS compounds, which could lead to further phase out of additional PFAS substances. In February , EPA issued an update on its progress under the PFAS Action Plan, tracking its actions over the last year.

Congress: In , the U.S. House of Representatives introduced 13 bills related to PFAS. In January , the House passed H.R. 535, the PFAS Action Act, with bipartisan support. The PFAS Action Act seeks to require EPA to designate all PFAS as CERCLA hazardous substances and to set a mandatory drinking water standard for PFAS. However, Senate Republicans have indicated that they do not intend to pass the PFAS Action Act. To date, the only PFAS provisions signed into law were included in the must-pass National Defense Authorization Act (NDAA) for Fiscal Year (FY) . Those provisions require the U.S. Department of Defense to stop using PFAS in firefighting foam and to begin cleaning up resources contaminated by military PFAS use. Furthermore, the NDAA included provisions related to drinking water monitoring, revolving grants funds for remediation, Toxic Release Inventory (TRI) reporting for certain PFAS compounds, a data call to certain PFAS manufacturers, interim guidance on the destruction/disposal of AFFF, finalization of the significant new use rule (SNUR) on long-chain PFAS by June , and use of federal-state cooperative agreements.

States: At least 23 states have issued or proposed health advisories, guidance or standards for PFAS in drinking water and/or action levels for groundwater, mostly at 70 ppt for PFOS and PFOA or above. Perfluorononanoic acid (PFNA), perfluorohexane sulfonate (PFHxS) and perfluoroheptanoic acid (PFHpA) are the most regulated PFAS, other than PFOA and PFOS. New Jersey is the only state that has a currently enforceable MCL for a PFAS 13 ppt for PFNA. New Hampshire approved new MCLs for PFOA, PFOS, PFNA and PFHxS in July , but enforcement of these new limits was suspended via an injunction as of Dec. 31, . New Jersey and Massachusetts have proposed more stringent MCLs for certain PFAS substances. The following eight additional states have promulgated or proposed standards or guidance for PFOA and PFOS below 70 ppt: California, Michigan, Minnesota, New York, Pennsylvania, Rhode Island, Texas and Vermont. EPA guidance recommends that states use 70 ppt as the preliminary remediation goal for groundwater that is a current or potential source of drinking water if a drinking water standard or other applicable or relevant and appropriate requirement is not in place.

Soil screening levels indicate further investigation and potential remediation might be necessary. Five states Alaska, Maine, Michigan, North Carolina and Texas have promulgated soil screening levels for groundwater protection. Ten states have promulgated soil screening levels for human health, including Alaska, Delaware, Iowa, Maine, Michigan, Minnesota, Nevada, New Hampshire, North Carolina and Texas. In December , Massachusetts promulgated new reporting and remediation requirements for PFAS as part of its state Superfund law, Chapter 21E. While water values have typically been set at parts per trillion (ppt), soil values have been set at parts per billion (ppb). In comparison to groundwater and drinking water standards, these values are significantly higher.

Manufacturing restrictions at the state level tend to focus on firefighting foams, although there is a trend toward states restricting PFAS in food packaging and other consumer products. Fifteen states have either adopted policies or initiated the adoption of policies to prohibit PFAS in firefighting foam. Additional regulatory action related to PFAS is expected to continue.

WHAT ARE THE ENVIRONMENTAL REMEDIATION COSTS RELATED TO PFAS?

PFAS are highly water soluble and resistant to natural degradation. Thus, when PFAS are released to groundwater, their plumes typically migrate larger distances than other contaminants. PFAS’ unique chemical characteristics make them particularly expensive to investigate and remediate. There are estimates that potential nationwide PFAS environmental cleanup liabilities will be between $40 billion and $60 billion, and that drinking water supply remediation costs are approximately $3,000 to $5,000 per customer served.

HOW DO YOU REMEDIATE PFAS?

PFAS are resistant to chemical oxidation and bioremediation, presenting important challenges to traditional methods of in situ remediation. Therefore, typical remediation includes the use of activated carbon or resin filters to pull certain strands of PFAS out of water. The science and engineering communities continue to investigate remedial techniques, but cost-effective in situ remediation is likely years in the future.

Effective ex situ remediation methods including the use of activated carbon filters can also be expensive. The result is that remediation of PFAS could be expected to be complex and extremely costly, resulting in a greater chance of material impact on a transaction.

WHAT ARE THE ENVIRONMENTAL ENFORCEMENT RISKS RELATED TO PFAS?

Increased federal and state PFAS regulations have the potential to significantly increase environmental remediation obligations for responsible parties throughout the country. If EPA lists PFAS as a hazardous substance under CERCLA, potentially responsible parties can expect enforcement action from EPA. Some current Superfund sites are anticipating the prospects of addressing PFAS as part of remediation plans. Some states are already beginning to require active and closed Superfund and brownfield sites to sample for PFAS. New York and New Jersey require all active remediation sites to sample for certain PFAS. New York requires owners or operators of sites that have already received regulatory closure to sample for PFAS. New Jersey has expressed a willingness to reopen closed sites to sample for PFAS. California is requiring a phased investigation of PFAS at sites that are potential users of PFAS. Massachusetts requires investigation of sites with potential PFAS contamination under its Massachusetts Contingency Plan. Other states may follow suit.

WHAT ARE THE LITIGATION RISKS RELATED TO PFAS?

As a result of the regulatory uncertainty related to PFAS, purchasers in real estate and corporate deals could unknowingly take on liability for personal injury, property damage and environmental cost recovery claims in private lawsuits for direct discharges to the environment, legal disposals of PFAS containing products at landfills, and legal discharges to wastewater treatment plants in accordance with permits.

Many lawsuits have been advanced against primary manufacturers of PFAS and secondary users of PFAS during the past several years seeking damages for personal injury, property damage and recovery of remediation costs under federal and state environmental statutes. Settlements entered to date between manufacturers and drinking water users have ranged from $1.6 million to $671 million.

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The risk of toxic tort litigation, environmental litigation, enforcement and increased remediation costs will likely increase as more information about the impacts of PFAS are gathered. As a result of these potential liabilities, PFAS pose a major risk in transactions and ongoing operations that, if not managed, can result in significant liabilities.

QUESTIONS FOR DUE DILIGENCE

Corporate and real estate teams should closely review the Phase I report to determine if the property was used by any of the aforementioned industries or if PFAS could be present in any component parts used or manufactured at the property. In addition, the corporate and real estate teams should never assume that a consultant looked into PFAS issues when completing the Phase I because the ASTM standards for Phase I reports, which provide purchasers potential defenses from liability under CERCLA (aka Superfund), do not currently require consultants to assess for PFAS risks. Holland & Knight’s Environmental Team is well suited to assist with this review, as a more detailed review of permits and product inventories may be warranted.

MITIGATION MEASURES

Despite the potential risks to buyers, liability related to PFAS can be mitigated through the following mechanisms:

Liability Defenses: Holland & Knight’s Environmental Team should be consulted to determine if PFAS should be addressed in Phase I reports to provide prospective purchasers an opportunity to qualify for the bona fide prospective purchaser (BFPP) defenses against potential CERCLA liability.

Indemnity Agreements and Reps and Warranties: Consider whether PFAS should be included within the definition of hazardous materials in the purchase agreement and related transactional documents.

Insurance: Although the environmental insurance industry is closely watching PFAS developments, insurance may be available in certain circumstances.

Voluntary Cleanup Programs: Many states do not offer liability protections for releases of hazardous substances. But most states have voluntary cleanup programs that can be utilized to obtain liability protection.

Compliance Programs: When acquiring a new company or business, companies may want to consider conducting companywide internal compliance audits of the acquired entity to assess potential liability for PFAS and if adequate standard operating procedures are currently in place. In some states, these audits can be conducted through programs that provide immunity from penalties that might otherwise be assessed. EPA’s audit policy may also provide some benefits, particularly where a state audit program is not available or would not provide immunity from penalties.

Holland & Knight intern Hannah Coulter also contributed to this article.Learn more about our Energy and Natural Resources Industry Sector Group.Information contained in this alert is for the general education and knowledge of our readers. It is not designed to be, and should not be used as, the sole source of information when analyzing and resolving a legal problem. Moreover, the laws of each jurisdiction are different and are constantly changing. If you have specific questions regarding a particular fact situation, we urge you to consult competent legal counsel.

Perfluoroalkyl and Polyfluoroalkyl Substances (PFAS)

Per- and polyfluoroalkyl substances (PFAS) are a large, complex group of synthetic chemicals that have been used in consumer products around the world since about the s. They are ingredients in various everyday products. For example, PFAS are used to keep food from sticking to packaging or cookware, make clothes and carpets resistant to stains, and create firefighting foam that is more effective. PFAS molecules have a chain of linked carbon and fluorine atoms. Because the carbon-fluorine bond is one of the strongest, these chemicals do not degrade easily in the environment. Table of Contents
  • What is NIEHS Doing?
  • Further Reading

Introduction

How Are People Exposed to PFAS?

Human exposure to PFAS is widespread but variable by geography and occupation. PFAS are used in the aerospace, automotive, construction, and electronics industries. Over time, PFAS may leak into the soil, water, and air.

People are most likely exposed to these chemicals by consuming PFAS-contaminated water or food, using products made with PFAS, or breathing air containing PFAS. Because PFAS break down slowly, if at all, people and animals are repeatedly exposed to them, and blood levels of some PFAS can build up over time.

One report by the Centers for Disease Control and Prevention, using data from the National Health and Nutrition Examination Survey (NHANES), found PFAS in the blood of 97% of Americans.  Another NHANES report suggested blood levels of PFOS and PFOA in people have been reduced since those chemicals were removed from consumer products in the early s. However, new PFAS chemicals have been created and exposure to them is difficult to assess.

NIEHS conducts or funds research that aims to understand more about PFAS exposures and any subsequent health effects.

Why Be Concerned About PFAS?

Multiple health effects associated with PFAS exposure have been identified and are supported by different scientific studies. Concerns about the public health impact of PFAS have arisen for the following reasons:

  • Widespread occurrence. Studies find PFAS in the blood and urine of people, and scientists want to know if they cause health problems.
  • Numerous exposures. PFAS are used in hundreds of products globally, with many opportunities for human exposure.
  • Growing numbers. PFAS are a group of nearly 15,000 synthetic chemicals, according to a chemicals database (CompTox) maintained by the U.S. Environmental Protection Agency.
  • Persistent. PFAS remain in the environment for an unknown amount of time.
  • Bioaccumulation. People may encounter different PFAS chemicals in various ways. Over time, people may take in more of the chemicals than they excrete, a process that leads to bioaccumulation in bodies.

Because there are many types of PFAS chemicals, which often occur in complex mixtures and in various everyday products, researchers face challenges in studying them. More research is needed to fully understand all sources of exposure, and if and how they may cause health problems.

What is NIEHS Doing?

Fact Sheets

Drinking Water and Your Health

Endocrine Disruptors and Your Health

NIEHS supports research to characterize and better understand the possible health effects of exposure to PFAS chemicals.

This work is conducted in three main ways:

  • NIEHS funds research grants primarily at universities, but also non-profit research centers and a few small businesses.
  • Some NIEHS scientists conduct PFAS research at in-house laboratories.
  • NIEHS also collaborates with federal partners.

Current research areas at NIEHS include:

  • How, where, and the extent to which people are exposed to PFAS.
  • How PFAS can affect organs and systems in the body.
  • How and where PFAS move through the environment, such as through water, air, and dust.
  • Determining ways to identify, detect, and measure PFAS in the environment.
  • Development of technologies and devices to get rid of or destroy PFAS.
  • Determining effective ways to tell people about PFAS risk and what they can do to prevent or reduce their exposure.

NIEHS research is used by federal and state regulatory, environmental, and public health agencies to develop new standards to protect the health of people throughout the world. NIEHS is not a regulatory agency.

Other federal agencies, such as EPA and CDC, also conduct research related to PFAS.

PFAS science continues to evolve. There is still much to be learned, particularly in assessing human health effects of exposure to PFAS.

Federal Coordination

NIEHS participates in the government-wide approach led by the White House to advance clean drinking water and reduce pollutants. This collaboration works to identify routes of PFAS exposure, understand associated health risks, and reduce the public’s dietary exposure to PFAS.

What We Have Learned So Far

It is important to note that there are thousands of variations in PFAS chemicals, which can make them hard to study. But the research conducted to date reveals possible links between human exposures to certain PFAS and some adverse health outcomes. These health effects include:

  • Altered metabolism and body weight regulation, and risk of childhood obesity.
  • Increased risk of some cancers.
  • Reduced ability of the immune system to fight infections.

Furthermore, the National Toxicology Program (NTP), an interagency program headquartered at NIEHS, concluded that two types of PFAS, PFOA and PFOS, suppressed the antibody response and were a hazard to immune system function in humans.

NIEHS-funded Research

NIEHS supports more than 40 research groups across the country to better understand the health effects of PFAS. These researchers have established links between exposure to some PFAS and disease, but there is still much to learn.

  • Exposure to PFAS may delay the onset of puberty in girls. This study is the first longitudinal research to include the role hormones play in the puberty delay. This delay can lead to negative long-term health outcomes, including a higher incidence of breast cancer, renal disease, and thyroid disease.
  • Exposure to PFAS in adolescents was linked to a decrease in bone mineral density over time. Lower bone mineral density can lead to osteoporosis and other bone diseases. This study adds to previous research mostly focused on older populations that has linked PFAS to reduced bone mineral density.
  • A long-term study showed a link between PFAS exposure and increased risk of Type 2 diabetes in women.
  • Studies show folate may reduce PFAS accumulation in the body, which may protect against adverse birth outcomes and boost immune health.
  • A high-fiber diet may decrease metabolic disease risks associated with exposure to PFOS, a type of PFAS. Although PFOS use has been phased out, it can still be found in drinking water, groundwater, soil, and air.
  • Exposure to certain PFAS may be associated with increased risk of thyroid cancer.
  • A large-scale study on exposure to PFAS in humans and rodents showed consistent evidence of liver damage. PFAS are known to accumulate in body tissues such as in the liver. Nonalcoholic fatty liver disease is a fast-growing epidemic in the U.S. that cannot be fully explained by commonly understood risk factors such as sedentary lifestyle, genetics, and diet. This situation led researchers to investigate environmental exposures, such as PFAS, and liver disease.

The NIEHS Superfund Research Program (SRP) funds the search for practical applications to protect the public from exposures to hazardous substances. Examples include:

  • The Sources, Transport, Exposure, and Effects of PFASs (STEEP) project, at the University of Rhode Island, is identifying sources of PFAS contamination, assessing human health effects, and educating communities on ways to reduce exposure.
  • The Michigan State Superfund Research Center is developing energy-efficient nanoreactors capable of breaking the carbon-fluorine bond that keeps PFAS from degrading.
  • Scientists at the University of California, Berkeley, are working on options to contain aqueous film-forming foams used for firefighting, a major source of PFAS contamination.
  • The Brown University Superfund Research Center has developed databases that exploit land use data to identify cities and towns at high risk for PFAS exposure.
  • Small Business Innovation Research (SBIR) grantee CycloPure, Inc., has developed a new way to remove hazardous PFAS from water. The water pitcher-based filters should be an affordable option for people concerned about PFAS exposure where they live or work.
  • A team at the North Carolina State University SRP Center is studying alligators living in PFAS-contaminated water to understand possible effects on the immune system. They also developed a new high-throughput tool to quickly characterize how PFAS may be transported within the body and potentially cause harm.
  • Another SBIR project by EnChem Engineering, Inc. is developing an innovative technology to speed up removal of PFAS at Superfund sites.
  • SRP-funded small business AxNano developed a portable tool that relies on nanoparticles to quickly detect PFAS in samples. Their method is more affordable and efficient than traditional mass spectrometry.

Further Reading

Stories from the Environmental Factor (NIEHS Newsletter)

  • Researchers Investigate a New Method to Detect PFAS Chemicals (May )
  • Cancer Causes Attributable to PFAS in Drinking Water (February/March )
  • PFAS Mixtures More Harmful to Health Than Exposure to a Single Compound (December )
  • Water Treatment Technology Aims to Destroy PFAS On-site (November )
  • Evaluating the Effect of PFAS on Liver Cells (November )
  • PFAS Chemicals, Other Resources Added to Toxicity Testing Tool (September )
  • Ask the Expert: How Does NIEHS Research on PFAS Affect Me? (May )
  • New Strategy To Prioritize PFAS for Health Risk Assessments (May )
  • Researchers Team up With Tribe, Community to Fight PFAS With Plants (April )
  • For PFAS-Polluted Sites, Forum Highlights Best Research Practices (December )
  • High-fiber Diet May Protect Against Exposure to PFOS(April )
  • Alligators Exposed to Elevated Levels of PFAS Show Signs of Immune Disruption (December )
  • Liver Injury Linked to PFAS Exposures, NIEHS Grantee Says(October )
  • Plant-based Material Can Remediate PFAS, New Research Suggests(September )
  • NIEHS Influences National Efforts to Understand, Solve PFAS Problems (September )
  • PFAS Water Filter Developed Through NIEHS Funding (April )

Additional Resources

  • FDA Announcements on PFAS - FDA works to better understand PFAS exposure in the U.S. by testing the general food supply, including bottled water. The results of this testing and any regulatory actions taken are summarized and posted throughout the year.
  • National Academies Sciences Engineering Medicine Consensus Study Report Highlights - Guidance on PFAS Exposure,Testing, and Clinical Follow-Up. NIEHS, and the Agency for Toxic Substances, and Disease Registry (ATSDR) supported this study to evaluate the most current evidence on the human health effects associated with PFAS exposure and to provide information for ATSDR to consider in their advice for clinicians about PFAS testing and how test results should inform clinical care.
  • PFAS Blood Testing: What You Need to Know - this fact sheet was created, in , by a NIEHS-funded project at the Silent Spring Institute.
  • PFAS Collection - Published between and , these Environmental Health Perspectives papers demonstrate the diverse areas where skillfully designed PFAS-related epidemiological research and modeling is occurring.
  • PFAS Contamination Map - A nationwide map of PFAS contamination was created by the Environmental Working Group.
  • PFAS Exchange - The Silent Spring Institute provides many fact sheets and other resources to help you protect your health.
  • PFAS Strategic Roadmap: EPA's Commitments to Action - - PFAS contamination poses unique challenges. The actions outlined in the roadmap may lead to more enduring and protective solutions.
  • Reducing PFAS in Drinking Water (1MB) - In the Cincinnati area, NIEHS-funded researchers discovered high levels of a specific PFAS chemical, called perfluorooctanoate (PFOA), in young girls. This research translation story shows how they worked with local water departments to implement water filtering techniques that resulted in a 40-60% reduction in PFOA levels in the girls and other residents.

Related Health Topics

  • Endocrine Disruptors
  • Nutrition, Health, and Your Environment
  • Safe Water and Your Health
  • Toxicology

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