| Status : Published | Published On : Sep, 2026 | Report Code : VRCH2145 | Industry : Chemicals & Materials | Available Format :
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Page : 143 |
The global PFAS testing market was estimated at USD 0.49 billion in 2025, reached approximately USD 0.56 billion in 2026, and is projected to reach nearly USD 1.99 billion by 2035, reflecting an estimated 15.1% CAGR from 2026 to 2035.
Market growth is attributed to increasingly stringent requirements for environmental monitoring and a growing number of drinking water surveillance programs, increased remediation activity and the continued development of high-sensitivity analytical technologies. The United States Environmental Protection Agency has established PFAS drinking water monitoring requirements and approved analytical methods including Methods 533 and 537.1, while Method 1633A facilitates analysis across wastewater, surface water, groundwater, soil, biosolids, sediment, landfill leachate and tissue samples. These regulatory and analytical developments are broadening the number of matrices and applications requiring laboratory testing, while investments in LC MS/MS, high-resolution mass spectrometry, automated sample preparation and PFAS-specific consumables are stimulating market growth.
Research Methodology
VynZ Research employs a structured secondary research and market triangulation methodology to evaluate the global PFAS testing industry. The VynZ Research team examines market assessments, regulatory publications, analytical method documentation, company disclosures, laboratory information and environmental monitoring developments to establish the market definition and forecast framework. The analysis encompasses testing instruments, analytical techniques, methods, sample matrices, applications and end users, while separating PFAS testing from general environmental testing activities. Historical information is reviewed for 2020 to 2024, with 2025 serving as the base year. Forecast calculations for 2026 to 2035 consider regulatory expansion, testing volumes, laboratory capacity, analytical technology adoption, environmental monitoring and increasing requirements for PFAS detection across multiple sample types.
Research Highlights
The PFAS testing industry is moving towards higher sensitivity, broader analyte coverage and greater analytical automation as regulators and laboratories address increasingly complex sample matrices. LC MS/MS remains central to routine targeted analysis due to its high sensitivity and quantitative performance, while high-resolution mass spectrometry is gaining attention for its broader screening and non-targeted workflows. The US Environmental Protection Agency has expanded analytical coverage through Method 1633A, which supports analysis of 40 PFAS compounds across multiple aqueous, solid, biosolid and tissue matrices, encouraging laboratories to upgrade instruments and sample preparation workflows. Another trend is the movement towards automated sample preparation and integrated data management, where PFAS analysis can require strict contamination control and specialized consumables and multiple preparation stages, requiring improved reproducibility and laboratory throughput.
The continued growth of the PFAS testing market is strongly supported by regulatory monitoring of drinking water. The US Environmental Protection Agency established a PFAS National Primary Drinking Water Regulation and published implementation resources covering initial monitoring, compliance monitoring, laboratory certification and analytical methods. The EPA documentation states that initial monitoring ends in April 2027 under the published framework, followed by compliance monitoring from there on with compliance requirements due to be scheduled for April 2029, subject to subsequent regulatory actions. These requirements create demand for laboratory analysis, method compliant workflows and qualified testing capacity among public water systems and supporting laboratories.
Despite the favorable growth prospects for the PFAS testing market, there are technical challenges associated with contamination control, complex sample preparation and the large number of PFAS compounds requiring consideration. The EPA notes that thousands of PFAS chemicals exist with different carbon chain lengths and functional groups, making comprehensive analysis technically challenging. Laboratory workflows must accordingly control background contamination and use appropriate sample collection, preparation and analytical procedures. These requirements increase testing complexity and can raise operating costs, particularly for laboratories expanding from routine targeted analysis towards broader compound screening. Method standardization across different sample matrices is also a challenge for the PFAS testing market.
The market provides opportunities in automated analytical workflows, as laboratories face increasing sample volumes and more demanding turnaround requirements. Automated solid phase extraction, integrated instrument control and digital data processing can reduce manual handling and improve workflow consistency. Water has demonstrated automation for the EPA Method 1633 sample preparation while instrument manufacturers are developing systems designed specifically for sensitive PFAS analysis. This creates opportunities for suppliers of mass spectrometers, chromatography systems, sample preparation equipment, PFAS-specific columns, reference standards and laboratory software. Another opportunity for the PFAS testing market is in food, packaging, consumer products and biological sample testing.
|
Report Metric |
Details |
|
Historical Period |
2020 - 2024 |
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Base Year Considered |
2025 |
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Forecast Period |
2026 - 2035 |
|
Market Size in 2025 |
USD 0.49 Billion |
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Revenue Forecast in 2035 |
USD 1.84 Billion |
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Growth Rate |
15.1% |
|
Segments Covered in the Report |
Technology, Sample Type, Application, End User |
|
Report Scope |
Market Trends, Drivers, and Restraints; Revenue Estimation and Forecast; Segmentation Analysis; Companies’ Strategic Developments; Market Share Analysis of Key Players; Company Profiling |
|
Regions Covered in the Report |
North America, Europe, Asia Pacific, Rest of the World |
|
Key Companies |
Agilent Technologies, ALS Limited, Bureau Veritas, Eurofins Scientific, Intertek Group, Merck KGaA, SGS, Shimadzu, Thermo Fisher Scientific, Waters Corporation |
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Customization |
Available upon request |
Liquid chromatography with tandem mass spectrometry is estimated to account for approximately 59.8% of global revenue in 2026, supported by its sensitivity, selectivity and established use in regulatory PFAS analysis.
High resolution mass spectrometry is projected to grow at approximately 16.1% CAGR through 2035. Its development is supported by demand for broader screening and non-targeted analysis, particularly where laboratories need to investigate PFAS profiles beyond established targeted compound lists.
Water is estimated to account for approximately 60.8% of global revenue in 2025, supported by drinking water regulation, groundwater investigations and wastewater monitoring.
Soil and sediment are estimated to expand at approximately 15.0% CAGR through 2035, as analytical requirements increasingly extend beyond drinking water.
Water testing is estimated to account for approximately 62% of revenue in 2025, making it the largest application. The position reflects regulatory monitoring requirements, public water system surveillance and continuing investigation of groundwater and wastewater contamination.
Food and beverage testing is projected to grow at approximately 16.4% CAGR through 2035. The growth reflects increased attention to PFAS in food and food contact materials, together with expanding analytical workflows for fresh, processed and packaged food.
Environmental testing laboratories are estimated to account for approximately 43.8% of revenue in 2025, supported by the outsourcing of specialized PFAS analysis from municipalities, industries and organizations that require accredited analytical capacity.
Industrial users are estimated to grow at approximately 16.0% CAGR through 2035. Industrial demand is supported by wastewater monitoring, site investigations, process control, product testing and potential liability assessment.
North America accounted for an estimated 46.1% of the Global PFAS Testing Market in 2025, making it the leading regional market. The region benefits from established laboratory networks, regulatory monitoring, remediation activity and substantial investment in analytical technologies. Current market assessments place North America between approximately 44.5% and 47.4% of the global market, supporting the adjusted VynZ Research estimate. The United States represents the principal regional market, with EPA requirements for drinking water monitoring and analytical methods creating recurring testing demand across public water systems and laboratories.
Europe accounted for an estimated 27.4% of revenue in 2025, supported by expanding environmental monitoring, regulatory attention and industrial testing requirements. Market evidence places Europe as the second major regional market, while regulatory developments continue to increase demand for analytical capabilities covering water, soil, food, consumer products and industrial matrices. The region is estimated to expand at approximately 14.2% CAGR from 2026 to 2035, supported by wider testing requirements and laboratory investment.
Asia Pacific accounted for approximately 18.5% of market revenue in 2025 and is estimated to record the fastest regional expansion at approximately 17.0% CAGR from 2026 to 2035. Growth is supported by industrial development, expanding environmental monitoring, water quality requirements and greater availability of advanced analytical instruments. Japan, China, South Korea, India and Australia represent important testing markets, although adoption varies according to national regulatory frameworks and laboratory infrastructure.
The Rest of the World accounted for approximately 8% of revenue in 2025, covering Latin America, the Middle East and Africa. Demand is developing through water quality monitoring, industrial environmental compliance, remediation activities and expansion of laboratory testing capacity. Regional growth remains dependent on regulatory development, availability of accredited laboratories, analytical equipment investment and the outsourcing of specialized testing.
The global PFAS testing market is competitive across analytical instruments, laboratory services, reference standards, consumables and software. Major participants differentiate through sensitivity, method coverage, laboratory capacity, accreditation, geographic reach and integrated workflows. Instrument manufacturers are expanding LC MS/MS and high-resolution mass spectrometry capabilities, while testing laboratories are broadening coverage across environmental, food, biological and industrial matrices. Recent developments from Agilent, Waters and Shimadzu demonstrate continued investment in PFAS-specific workflows, sample preparation, analytical sensitivity and specialized testing applications.
Agilent Technologies develops analytical instruments, PFAS standards and sample preparation workflows, including dedicated solutions for EPA methods and food related PFAS analysis.
Bureau Veritas provides environmental testing and analytical services within its broader testing, inspection and certification network, supporting environmental compliance requirements across multiple markets.
Eurofins Scientific operates extensive laboratory testing capabilities covering environmental analysis, food testing and specialized contaminant testing, supporting organizations with PFAS monitoring requirements.
Merck KGaA supplies analytical standards, reagents and laboratory products used in PFAS workflows, supporting laboratories that require controlled analytical materials and reference standards.
Thermo Fisher Scientific provides mass spectrometry platforms and analytical workflows used for sensitive PFAS quantification across environmental and food related applications.
Agilent Technologies introduced new PFAS testing kits for food in 2025, covering animal origin and plant origin fresh and processed foods. The kits include specialized sample preparation cartridges, columns and PFAS free vials for LC MS analysis.
Waters Corporation demonstrated automated sample preparation for EPA Method 1633 in 2025, with the workflow reducing preparation time and increasing laboratory throughput. The company also published work showing PFAS analysis using reduced aqueous sample volumes while maintaining required recovery performance.
Shimadzu Corporation released the LCMS 8065XE triple quadrupole mass spectrometer in 2025, positioning the system specifically for the expanding PFAS analysis market. The platform combines improved sensitivity with PFAS analysis methods and supporting software.
ALS Limited continues to expand its accredited PFAS testing portfolio across water, soil, air, biosolids, leachates, waste, biota, food and industrial matrices. Its laboratory network spans the Americas, Europe and Asia Pacific, supporting increasing demand for specialized PFAS analysis.
SGS provides PFAS sampling and testing across water, soil, sediment, biosolids, air, waste, biological samples, plants and firefighting foams. Its PFAS capabilities include work associated with EPA Method 1633 and a global network of accredited laboratories.
sample type, water is estimated to hold approximately 60.8% of global revenue in 2025, due to drinking water monitoring, wastewater assessment and groundwater investigations. Insight and Forecast 2026 - 2035
Technology Insight and Forecast 2026 - 2035
Sample Type Insight and Forecast 2026 - 2035
Application Insight and Forecast 2026 - 2035
End User Insight and Forecast 2026 - 2035
Global Global PFAS Testing Market by Region
1. Research Overview
1.1. The Report Offers
1.2. Market Coverage
1.2.1. By
sample type, water is estimated to hold approximately 60.8% of global revenue in 2025, due to drinking water monitoring, wastewater assessment and groundwater investigations.
1.2.2. By
Technology
1.2.3. By
Sample Type
1.2.4. By
Application
1.2.5. By
End User
1.3. Research Phases
1.4. Limitations
1.5. Market Methodology
1.5.1. Data Sources
1.5.1.1.
Primary Research
1.5.1.2.
Secondary Research
1.5.2. Methodology
1.5.2.1.
Data Exploration
1.5.2.2.
Forecast Parameters
1.5.2.3.
Data Validation
1.5.2.4.
Assumptions
1.5.3. Study Period & Data Reporting Unit
2. Executive Summary
3. Industry Overview
3.1. Industry Dynamics
3.1.1. Market Growth Drivers
3.1.2. Market Restraints
3.1.3. Key Market Trends
3.1.4. Major Opportunities
3.2. Industry Ecosystem
3.2.1. Porter’s Five Forces Analysis
3.2.2. Recent Development Analysis
3.2.3. Value Chain Analysis
3.3. Competitive Insight
3.3.1. Competitive Position of Industry
Players
3.3.2. Market Attractive Analysis
3.3.3. Market Share Analysis
4. Global Market Estimate and Forecast
4.1. Global Market Overview
4.2. Global Market Estimate and Forecast to 2035
5. Market Segmentation Estimate and Forecast
5.1. By sample type, water is estimated to hold approximately 60.8% of global revenue in 2025, due to drinking water monitoring, wastewater assessment and groundwater investigations.
5.1.1. Agilent Technologies Inc.
5.1.1.1. Market Definition
5.1.1.2. Market Estimation and Forecast to 2035
5.1.2. ALS Limited
5.1.2.1. Market Definition
5.1.2.2. Market Estimation and Forecast to 2035
5.1.3. Bureau Veritas SA
5.1.3.1. Market Definition
5.1.3.2. Market Estimation and Forecast to 2035
5.1.4. Eurofins Scientific SE
5.1.4.1. Market Definition
5.1.4.2. Market Estimation and Forecast to 2035
5.1.5. Intertek Group plc
5.1.5.1. Market Definition
5.1.5.2. Market Estimation and Forecast to 2035
5.1.6. Merck KGaA
5.1.6.1. Market Definition
5.1.6.2. Market Estimation and Forecast to 2035
5.1.7. SGS SA
5.1.7.1. Market Definition
5.1.7.2. Market Estimation and Forecast to 2035
5.1.8. Shimadzu Corporation
5.1.8.1. Market Definition
5.1.8.2. Market Estimation and Forecast to 2035
5.1.9. Thermo Fisher Scientific Inc.
5.1.9.1. Market Definition
5.1.9.2. Market Estimation and Forecast to 2035
5.1.10. Waters Corporation
5.1.10.1. Market Definition
5.1.10.2. Market Estimation and Forecast to 2035
5.2. By Technology
5.2.1. Liquid chromatography mass spectrometry
5.2.1.1. Market Definition
5.2.1.2. Market Estimation and Forecast to 2035
5.2.2. Gas chromatography mass spectrometry
5.2.2.1. Market Definition
5.2.2.2. Market Estimation and Forecast to 2035
5.2.3. High resolution mass spectrometry
5.2.3.1. Market Definition
5.2.3.2. Market Estimation and Forecast to 2035
5.2.4. Other analytical technologies
5.2.4.1. Market Definition
5.2.4.2. Market Estimation and Forecast to 2035
5.3. By Sample Type
5.3.1. Water
5.3.1.1. Market Definition
5.3.1.2. Market Estimation and Forecast to 2035
5.3.2. Soil and sediment
5.3.2.1. Market Definition
5.3.2.2. Market Estimation and Forecast to 2035
5.3.3. Food and packaging
5.3.3.1. Market Definition
5.3.3.2. Market Estimation and Forecast to 2035
5.3.4. Biological samples
5.3.4.1. Market Definition
5.3.4.2. Market Estimation and Forecast to 2035
5.3.5. Other matrices
5.3.5.1. Market Definition
5.3.5.2. Market Estimation and Forecast to 2035
5.4. By Application
5.4.1. Water testing
5.4.1.1. Market Definition
5.4.1.2. Market Estimation and Forecast to 2035
5.4.2. Soil testing
5.4.2.1. Market Definition
5.4.2.2. Market Estimation and Forecast to 2035
5.4.3. Food and beverage testing
5.4.3.1. Market Definition
5.4.3.2. Market Estimation and Forecast to 2035
5.4.4. Blood and serum testing
5.4.4.1. Market Definition
5.4.4.2. Market Estimation and Forecast to 2035
5.4.5. Air testing
5.4.5.1. Market Definition
5.4.5.2. Market Estimation and Forecast to 2035
5.4.6. Other applications
5.4.6.1. Market Definition
5.4.6.2. Market Estimation and Forecast to 2035
5.5. By End User
5.5.1. Environmental testing laboratories
5.5.1.1. Market Definition
5.5.1.2. Market Estimation and Forecast to 2035
5.5.2. Industrial users
5.5.2.1. Market Definition
5.5.2.2. Market Estimation and Forecast to 2035
5.5.3. Government and regulatory agencies
5.5.3.1. Market Definition
5.5.3.2. Market Estimation and Forecast to 2035
5.5.4. Research institutions
5.5.4.1. Market Definition
5.5.4.2. Market Estimation and Forecast to 2035
5.5.5. Other organizations
5.5.5.1. Market Definition
5.5.5.2. Market Estimation and Forecast to 2035
6. North America Market Estimate and Forecast
6.1. By
sample type, water is estimated to hold approximately 60.8% of global revenue in 2025, due to drinking water monitoring, wastewater assessment and groundwater investigations.
6.2. By
Technology
6.3. By
Sample Type
6.4. By
Application
6.5. By
End User
6.5.1.
U.S. Market Estimate and Forecast
6.5.2.
Canada Market Estimate and Forecast
6.5.3.
Mexico Market Estimate and Forecast
7. Europe Market Estimate and Forecast
7.1. By
sample type, water is estimated to hold approximately 60.8% of global revenue in 2025, due to drinking water monitoring, wastewater assessment and groundwater investigations.
7.2. By
Technology
7.3. By
Sample Type
7.4. By
Application
7.5. By
End User
7.5.1.
Germany Market Estimate and Forecast
7.5.2.
France Market Estimate and Forecast
7.5.3.
U.K. Market Estimate and Forecast
7.5.4.
Italy Market Estimate and Forecast
7.5.5.
Spain Market Estimate and Forecast
7.5.6.
Russia Market Estimate and Forecast
7.5.7.
Rest of Europe Market Estimate and Forecast
8. Asia-Pacific (APAC) Market Estimate and Forecast
8.1. By
sample type, water is estimated to hold approximately 60.8% of global revenue in 2025, due to drinking water monitoring, wastewater assessment and groundwater investigations.
8.2. By
Technology
8.3. By
Sample Type
8.4. By
Application
8.5. By
End User
8.5.1.
China Market Estimate and Forecast
8.5.2.
Japan Market Estimate and Forecast
8.5.3.
India Market Estimate and Forecast
8.5.4.
South Korea Market Estimate and Forecast
8.5.5.
Rest of Asia-Pacific Market Estimate and Forecast
9. Rest of the World (RoW) Market Estimate and Forecast
9.1. By
sample type, water is estimated to hold approximately 60.8% of global revenue in 2025, due to drinking water monitoring, wastewater assessment and groundwater investigations.
9.2. By
Technology
9.3. By
Sample Type
9.4. By
Application
9.5. By
End User
9.5.1.
Brazil Market Estimate and Forecast
9.5.2.
Saudi Arabia Market Estimate and Forecast
9.5.3.
South Africa Market Estimate and Forecast
9.5.4.
U.A.E. Market Estimate and Forecast
9.5.5.
Other Countries Market Estimate and Forecast
10. Company Profiles
10.1.
Agilent Technologies Inc.
10.1.1.
Snapshot
10.1.2.
Overview
10.1.3.
Offerings
10.1.4.
Financial
Insight
10.1.5.
Recent
Developments
10.2.
ALS Limited
10.2.1.
Snapshot
10.2.2.
Overview
10.2.3.
Offerings
10.2.4.
Financial
Insight
10.2.5.
Recent
Developments
10.3.
Bureau Veritas SA
10.3.1.
Snapshot
10.3.2.
Overview
10.3.3.
Offerings
10.3.4.
Financial
Insight
10.3.5.
Recent
Developments
10.4.
Eurofins Scientific SE
10.4.1.
Snapshot
10.4.2.
Overview
10.4.3.
Offerings
10.4.4.
Financial
Insight
10.4.5.
Recent
Developments
10.5.
Intertek Group plc
10.5.1.
Snapshot
10.5.2.
Overview
10.5.3.
Offerings
10.5.4.
Financial
Insight
10.5.5.
Recent
Developments
10.6.
Merck KGaA
10.6.1.
Snapshot
10.6.2.
Overview
10.6.3.
Offerings
10.6.4.
Financial
Insight
10.6.5.
Recent
Developments
10.7.
SGS SA
10.7.1.
Snapshot
10.7.2.
Overview
10.7.3.
Offerings
10.7.4.
Financial
Insight
10.7.5.
Recent
Developments
10.8.
Shimadzu Corporation
10.8.1.
Snapshot
10.8.2.
Overview
10.8.3.
Offerings
10.8.4.
Financial
Insight
10.8.5.
Recent
Developments
10.9.
Thermo Fisher Scientific Inc.
10.9.1.
Snapshot
10.9.2.
Overview
10.9.3.
Offerings
10.9.4.
Financial
Insight
10.9.5.
Recent
Developments
10.10.
Waters Corporation
10.10.1.
Snapshot
10.10.2.
Overview
10.10.3.
Offerings
10.10.4.
Financial
Insight
10.10.5.
Recent
Developments
11. Appendix
11.1. Exchange Rates
11.2. Abbreviations
Note: Financial insight and recent developments of different companies are subject to the availability of information in the secondary domain.
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