Carbon Capture and Sequestration Market

Carbon Capture and Sequestration Market Size, Market Forecast and Outlook By FMI

In 2025, the carbon capture and sequestration market was valued at USD 5.0 billion. Based on Future Market Insights' analysis, demand for carbon capture and sequestration is estimated to grow to USD 5.5 billion in 2026 and USD 13.2 billion by 2036. FMI projects a CAGR of 10.1% during the forecast period.

An absolute dollar growth of USD 7.7 billion between 2026 and 2036 reflects policy-driven infrastructure build-out rather than volume-only industrial expansion. Growth depends on increased conversion from uncaptured emissions to integrated capture, transport, and storage networks delivering permanent CO₂ disposal. As per FMI, project developers are capturing value not from incremental capture capacity alone but from aggregation economies of scale in transportation networks and storage hub development that reduce per-tonne costs through shared infrastructure.

Summary of the Carbon Capture and Sequestration Market

• Market Definition
  • The market comprises CO₂ capture from industrial sources, transport infrastructure, and geological storage for emissions reduction and enhanced oil recovery.
• Demand Drivers
  • Tax credit enhancements including 45Q in the USA providing USD 85 per tonne for dedicated storage.
  • Net-zero commitments from industrial emitters with limited alternative decarbonization pathways.
  • Emissions trading system allowance prices exceeding capture costs in regulated markets.
• Key Segments Analyzed
  • Capture Source: Chemicals leads, accounting for 34.7% share in 2025 due to high-purity CO₂ streams from ammonia and hydrogen production enabling lower capture costs.
  • End-Use: Enhanced Oil Recovery dominates at 58.3% share, generating revenue through incremental oil production while storing CO₂.
  • Region: North America leads project development, while Europe drives policy innovation through storage hub development.
• Analyst Opinion at FMI
  • Nikhil Kaitwade, Principal Consultant for Oil & Gas at Future Market Insights, comments: "This updated report captures a market where project valuation is shifting from enhanced oil recovery economics toward dedicated storage revenue stacks combining tax credits and carbon credits. Developers securing Class VI well permits and aggregating industrial emissions into shared transportation networks are achieving per-tonne costs below USD 40, unlocking previously uneconomic capture opportunities."
• Strategic Implications/Executive Takeaways
  • Pursue 45Q tax credit allocation through DOE Section 45Q(f) competitive bidding for commercial-scale projects.
  • Develop industrial cluster aggregation models sharing transport and storage infrastructure to reduce per-tonne costs.
  • Secure EPA Class VI well permits for dedicated storage projects to establish long-term disposal capacity.
• Methodology
  • Built on primary interviews with project developers and capture technology providers.
  • Benchmarked against Global CCS Institute project database and IEA technology cost analysis.
  • Validated using DOE project tracking and internal peer review as per FMI modeling standards.

This performance reflects accelerating project final investment decisions across North America, Europe, and Asia-Pacific. North America leads global expansion supported by 45Q tax credit enhancements and Class VI well permit approvals. Europe follows driven by Net Zero Industry Act targets and North Sea storage hub development. Asia-Pacific maintains steady growth through national emissions reduction commitments and industrial cluster decarbonization programs.

Carbon Capture and Sequestration Market Definition

The carbon capture and sequestration market encompasses the capture of carbon dioxide emissions from industrial point sources, compression for transportation, and injection into deep geological formations for permanent storage. Capture technologies include post-combustion amine scrubbing, pre-combustion capture, oxy-fuel combustion, and direct air capture.

Transport occurs via pipeline, ship, rail, or truck to storage sites including depleted oil and gas reservoirs and deep saline aquifers. End-use applications include enhanced oil recovery where CO₂ injection increases hydrocarbon production, and dedicated storage where permanent disposal is the sole objective.

Market Inclusions

The report includes global and regional market size estimates in value terms, with a forecast period from 2026 to 2036. It provides segmentation by Capture Source, End-Use, and Region. The analysis incorporates technology cost trends, project development pipelines, regulatory framework evolution, and competitive positioning across capture and storage value chain segments. Regional demand dynamics, country-level growth rates, and policy incentive assessments are also evaluated as per FMI methodology.

Market Exclusions

The scope excludes biogenic carbon capture from biomass power generation, carbon utilization pathways producing fuels or chemicals, and direct air capture revenues where separable from point-source capture. It also excludes monitoring, reporting, and verification services and focuses strictly on capture, transport, and storage infrastructure investment.

Research Methodology

• Primary Research: Interviews were conducted with capture technology providers, EPC contractors, oil and gas company CCS executives, pipeline operators, storage site developers, and carbon credit traders.
• Desk Research: Public company filings, DOE and NETL databases, IEA reports, Global CCS Institute project databases, and regulatory documentation were reviewed.
• Market-Sizing and Forecasting: A hybrid top-down and bottom-up model was constructed, reconstructing demand from announced project capture capacities, final investment decision timelines, and per-tonne cost structures.
• Data Validation and Update Cycle: Outputs were subjected to variance testing against project pipeline databases, regulatory permit tracking, and structured internal review prior to publication.

Carbon Capture and Sequestration Market Drivers, Restraints, and Opportunities

Future Market Insights analysis indicates the market has historically existed as a niche application tied to enhanced oil recovery operations. Its baseline scale is anchored in natural gas processing where CO₂ separation is inherent to methane purification, and chemical production where high-purity CO₂ streams enable low-cost capture [1]. As per FMI, the market's valuation is increasingly driven by dedicated storage projects monetizing tax credits and carbon allowances.

FMI analysts observe a clear stratification between enhanced oil recovery projects where oil price exposure creates revenue uncertainty and dedicated storage projects where policy-driven revenue stacks provide investment certainty. Traditional EOR projects face pressure where low oil prices erode project economics, while growth concentrates in facilities capturing Section 45Q tax credits and generating carbon credits for compliance markets.

• Tax Credit Enhancements and Policy Support: The Inflation Reduction Act increased Section 45Q tax credits to USD 85 per tonne for dedicated storage and USD 60 per tonne for enhanced oil recovery, with direct pay options for project developers [2]. The USA Department of Energy's CarbonSAFE program funds site characterization and permitting for commercial-scale storage hubs. The Infrastructure Investment and Jobs Act provided USD 12 billion for carbon capture demonstration projects and CO₂ transport infrastructure development [3].
• Emissions Trading System Price Signals: EU Allowance prices exceeding EUR 80 per tonne create economic incentive for carbon capture in emissions-intensive industries covered by the EU Emissions Trading System [4]. The UK Emissions Trading Scheme and California's cap-and-trade program provide additional carbon price signals supporting capture investment. The Carbon Border Adjustment Mechanism extends carbon pricing to imported goods, protecting domestic industries investing in emissions reduction [5].
• Industrial Decarbonization Imperatives: Cement, steel, and chemical production face limited alternative decarbonization pathways beyond carbon capture due to process emissions inherent to manufacturing [6]. The Global CCS Institute tracks 30 commercial CCS facilities operating globally with 11 under construction and 153 in development, representing 350 million tonnes per annum capture capacity [1]. Industrial cluster initiatives including the UK's East Coast Cluster and USA Gulf Coast Hydrogen Hub aggregate emissions for shared transport and storage infrastructure [7].
• Storage Hub Development and Permitting: The USA Environmental Protection Agency has approved Class VI well permits for commercial-scale CO₂ storage in Illinois and North Dakota, with multiple applications pending across the Gulf Coast [8]. The North Sea Transition Authority has awarded carbon storage licenses in the UK Continental Shelf with capacity exceeding 10 billion tonnes. The European Union's Net Zero Industry Act sets 50 million tonnes annual CO₂ injection capacity target by 2030 [9].
• Cost Reduction Through Technology Advancement: Second-generation amine solvents reduce regeneration energy requirements from 3.5 GJ/tonne to 2.2 GJ/tonne, lowering capture costs [10]. Membrane separation systems achieve 90 % capture rates with reduced capital costs compared to amine scrubbing. Direct air capture costs remain above USD 600 per tonne but decline through learning curves as deployment scales [11].

Carbon Capture and Sequestration Market Analysis by Capture Source

Based on FMI's carbon capture and sequestration market report, demand from the chemicals segment is estimated to lead the capture source category, capturing 34.7% of the market share in 2025. The chemicals segment's leadership is attributed to high-concentration CO₂ streams from ammonia, hydrogen, and ethylene oxide production enabling lower capture costs compared to dilute flue gas applications. Chemical facilities produce CO₂ as a by-product of steam methane reforming and catalytic processes, allowing capture using existing gas separation equipment with minimal additional energy penalty. The segment's extensive infrastructure and integration potential with existing purification systems further enhance feasibility. Chemical producers face significant pressure to decarbonize supply chains as consumer brands and regulators target Scope 3 emissions, accelerating CCS adoption across the sector [12].

Natural gas processing represents the second-largest capture source segment, driven by inherent CO₂ separation requirements for pipeline-quality methane. Gas processing facilities vent high-purity CO₂ streams that can be captured and compressed for transport with minimal additional processing. Power generation capture serves coal and natural gas facilities where flue gas CO₂ concentrations below 15 % require higher capture costs but offer large-volume emissions reduction potential. Fertilizer production generates high-purity CO₂ streams similar to chemical manufacturing, with existing capture experience at facilities supplying CO₂ for enhanced oil recovery operations.

Carbon Capture and Sequestration Market Analysis by End-Use

Enhanced oil recovery holds approximately 58.3 % share in the end-use category, driven by its dual advantage of facilitating carbon storage while boosting oil extraction efficiency from mature reservoirs. Captured CO₂ injected into depleted wells enhances pressure, enabling extraction of additional hydrocarbons while permanently storing injected volumes. The economic benefits derived from incremental oil recovery make EOR one of the most commercially viable applications of CCS technology.

Established pipeline infrastructure in oil-producing regions including the Permian Basin and Alberta supports cost-effective CO₂ transport and utilization. The segment aligns with sustainability mandates as it provides a transitional pathway for the oil and gas industry to reduce emissions while maintaining output [13].

Dedicated storage and treatment represents the faster-growing end-use segment, driven by pure-play storage projects monetizing tax credits and carbon allowances without oil price exposure. Dedicated storage injects CO₂ into deep saline aquifers and depleted reservoirs where no hydrocarbon production occurs, focusing solely on permanent disposal.

The segment benefits from 45Q tax credit enhancements favoring dedicated storage at USD 85 per tonne versus USD 60 per tonne for EOR. Dedicated storage projects under development in the USA Gulf Coast, North Sea, and Southeast Asia target industrial cluster emissions with shared transport and storage infrastructure.

Regional Analysis

The carbon capture and sequestration market is segmented geographically across North America, Europe, Asia-Pacific, Latin America, and Middle East & Africa. Growth dynamics differ based on policy support, storage resource availability, and industrial emissions concentration.

Source: Future Market Insights (FMI) analysis, based on proprietary forecasting model and primary research

North America Market Analysis

North America leads global carbon capture and sequestration project development, driven by 45Q tax credit enhancements, Class VI well permitting progress, and extensive CO₂ pipeline infrastructure from enhanced oil recovery operations. The region benefits from DOE funding programs supporting capture demonstration projects and storage hub development.

• United States: Demand for carbon capture and sequestration in the United States is projected to rise at 20.4 % CAGR through 2036. The USA market benefits from the Inflation Reduction Act's 45Q tax credit enhancements providing USD 85 per tonne for dedicated storage and USD 60 per tonne for enhanced oil recovery, with direct pay options for project developers [2]. The Department of Energy's Carbon Storage Assurance Facility Enterprise program funds site characterization and permitting for commercial-scale storage hubs.
  • EPA Class VI well permit approvals in Illinois and North Dakota establish regulatory pathway for dedicated storage projects, with multiple applications pending across the Gulf Coast [8]. Industrial clusters along the Gulf Coast aggregate emissions from refining, chemical, and power generation for shared transport and storage infrastructure. The Midwest Carbon Express pipeline network connects ethanol plants to storage sites in North Dakota, demonstrating aggregation model viability.

FMI's analysis of the carbon capture and sequestration market in North America consists of country-wise assessment including the United States, Canada, and Mexico. Readers can find 45Q guidance tracking, Class VI permit monitoring, and project pipeline intelligence.

Europe Market Analysis

Europe represents the policy innovation hub for carbon capture and sequestration, driven by EU Emissions Trading System carbon prices exceeding EUR 80 per tonne, the Net Zero Industry Act storage targets, and North Sea storage resource development.

• United Kingdom: Demand for carbon capture and sequestration in the United Kingdom is projected to rise at 21.8 % CAGR through 2036. The UK market benefits from the East Coast Cluster and HyNet North West industrial decarbonization projects selected for Track-1 support under the CCS Infrastructure Fund [7]. The North Sea Transition Authority has awarded carbon storage licenses in the UK Continental Shelf with capacity exceeding 10 billion tonnes.
  • The UK Emissions Trading Scheme provides carbon price signal supporting capture investment, with allowance prices tracking EU ETS levels. The Scottish Cluster targets emissions from Grangemouth industrial complex with shared transport to North Sea storage. Net Zero Teesside power project demonstrates full-chain capture, transport, and storage integration with 10 million tonnes annual capacity [5].

FMI's analysis of the carbon capture and sequestration market in Europe consists of country-wise assessment including the United Kingdom, Germany, France, Italy, and Spain. Readers can find storage license tracking, cluster development monitoring, and carbon price analysis.

Asia-Pacific Market Analysis

Asia-Pacific represents the fastest-growing regional market for carbon capture and sequestration, driven by national emissions reduction commitments, industrial emissions concentration, and government funding for demonstration projects.

• South Korea: Demand for carbon capture and sequestration in South Korea is projected to rise at 22.6 % CAGR through 2036, the highest among major markets. South Korea's commitment to technological innovation and sustainability drives investment in CCS projects and research initiatives [1]. The country's industrial base includes steel, petrochemical, and power generation facilities requiring deep emissions reduction to meet 2030 nationally determined contribution targets.
  • South Korea explores CCS applications for carbon utilization in enhanced oil recovery and chemical synthesis through collaboration with industry partners. The government's Korean CCS Association coordinates research and demonstration efforts across capture, transport, and storage technologies. Offshore storage potential in the Ulleung Basin provides geological capacity for industrial emissions from the southeastern industrial corridor [12].
  • FMI's analysis of the carbon capture and sequestration market in Asia-Pacific consists of country-wise assessment including South Korea, China, Japan, and Australia. Readers can find NDC tracking, demonstration project monitoring, and storage resource assessment.
• China: Demand for carbon capture and sequestration in China is projected to rise at 21.0 % CAGR through 2036. China's power generation and heavy industrial sectors account for significant carbon emissions requiring capture to meet 2060 carbon neutrality commitment [1]. The country invests in CCS projects for enhanced oil recovery and chemical manufacturing applications. China's national emissions trading system launched in 2021 covers power sector emissions, with expansion to industrial sectors creating carbon price signal for capture investment.
  • Major projects include the Yanchang Petroleum integrated CCS-EOR project in the Ordos Basin and the China National Petroleum Corporation Jilin油田 CO₂-EOR demonstration. The government's 14th Five-Year Plan includes CCS demonstration targets supporting commercial-scale deployment [12].
• Japan: Demand for carbon capture and sequestration in Japan is projected to rise at 21.4 % CAGR through 2036. Japan's commitment to reducing greenhouse gas emissions and transitioning to a low-carbon economy drives investment in CCS projects and research initiatives [1]. The country explores CCS applications for carbon utilization including enhanced oil recovery and chemical synthesis.
  • Japan's Tomakomai CCS demonstration project has injected 300,000 tonnes of CO₂ into offshore reservoirs, validating storage technology for commercial deployment. The government's Carbon Recycling Fund supports development of CO₂ utilization pathways. Japan's industrial emissions from steel, cement, and chemicals require capture to meet 2050 carbon neutrality target [12].

Competitive Landscape for Market Players

Integrated oil and gas companies with EOR operations characterize the carbon capture and sequestration market, engineering and construction firms providing capture technology, and specialized project developers advancing storage hubs. Leading firms are differentiating through capture technology portfolios, storage site portfolios, and project development expertise.

ExxonMobil leverages extensive CO₂ experience from Permian Basin enhanced oil recovery operations and the LaBarge natural gas processing facility capturing 6-7 million tonnes annually. The company's Low Carbon Solutions business targets industrial emissions capture with integrated transport and storage solutions.

Fluor Corporation provides capture technology licensing and EPC services through its Econamine FG PlusSM amine scrubbing process. Carbon Engineering Ltd. specializes in direct air capture technology with partnership agreements for commercial deployment. ADNOC Group integrates carbon capture with enhanced oil recovery at its Al Reyadah facility, the Middle East's first commercial-scale CCS project.

Equinor operates the Sleipner and Snøhvit CCS projects in the North Sea, storing over 25 million tonnes since 1996. China National Petroleum Corporation advances CCS-EOR demonstration in the Jilin and Ordos Basin. Shell, BP, Chevron, and Total participate in multiple CCS joint ventures including the Northern Endurance Partnership in the UK and Gorgon CCS in Australia.

Linde provides capture technology and industrial gas expertise for hydrogen production and chemical facilities. Aker Solutions supplies capture technology and subsea storage solutions for North Sea projects. NRG Energy operates the Petra Nova capture facility in Texas, the world's largest post-combustion capture project on a coal-fired power plant.

Buyer behavior in this market reflects project finance requirements for long-term offtake agreements and carbon credit purchase arrangements. Industrial emitters evaluating capture investment require certainty on transport and storage availability before committing capital. Framework agreements between emitters, transport operators, and storage providers allocate risks and establish commercial terms for long-term CO₂ disposal.

Recent Developments

• ExxonMobil - Storage Hub Development (2025): ExxonMobil advanced its Houston Ship Channel CCS innovation zone with Class VI well permit applications and industrial emitter agreements for CO₂ transport and storage.
• Carbon Engineering Ltd. - Direct Air Capture Deployment (2025): Carbon Engineering initiated construction of its first commercial direct air capture facility in the Permian Basin with 1 million tonnes annual capacity.
• Northern Endurance Partnership - Final Investment Decision (2025): The Northern Endurance Partnership reached final investment decision for East Coast Cluster CO₂ transport and storage infrastructure serving Teesside and Humber industrial emissions.

Key Players in the Carbon Capture and Sequestration Market

• ExxonMobil
• Fluor Corporation
• Carbon Engineering Ltd.
• ADNOC Group
• Equinor
• China National Petroleum Corporation
• Dakota Gasification Company
• Shell
• BP
• Chevron
• Linde
• TotalEnergies
• Aker Solutions
• NRG Energy

Scope of Report

Carbon Capture and Sequestration Market Analysis by Segments

Capture Source:

• Chemicals
• Natural Gas Processing
• Power Generation
• Fertilizers Production
• Others

End-Use:

• Enhanced Oil Recovery
• Dedicated Storage & Treatment

Region:

• North America
• Latin America
• Europe
• Asia-Pacific
• Middle East & Africa

Bibliography

• Global CCS Institute. (2025). Global Status of CCS 2025 Report. Global CCS Institute.
• USA Department of Energy. (2025). Section 45Q Credit for Carbon Oxide Sequestration: Guidance and Implementation Status. DOE Office of Fossil Energy and Carbon Management.
• USA Department of Energy. (2024). Carbon Storage Assurance Facility Enterprise (CarbonSAFE) Initiative Project Portfolio. National Energy Technology Laboratory.
• International Energy Agency. (2025). Carbon Capture, Utilisation and Storage: Technology Report 2025. IEA Publications.
• UK Department for Energy Security and Net Zero. (2025). *Cluster Sequencing for Carbon Capture, Usage and Storage Deployment: Track-1 Progress Update. DESNZ.
• Clean Air Task Force. (2025). Industrial Decarbonization Pathways: The Role of Carbon Capture. CATF.
• East Coast Cluster. (2025). East Coast Cluster Development Update. Northern Endurance Partnership.
• USA Environmental Protection Agency. (2025). Class VI Well Permit Applications and Approvals Status. EPA Underground Injection Control Program.
• European Commission. (2025). Net Zero Industry Act: Carbon Capture and Storage Provisions. European Union.
• National Petroleum Council. (2024). Meeting the Dual Challenge: A Roadmap to Deploy Carbon Capture, Use, and Storage. NPC.
• International Energy Agency. (2024). Direct Air Capture: A Key Technology for Net Zero. IEA.
• Global CCS Institute. (2024). The Global Status of CCS: 2024 Regional Reports. Global CCS Institute.
• USA Department of Energy. (2024). Carbon Storage and Enhanced Oil Recovery: Technical and Economic Assessment. NETL.

This bibliography is provided for reader reference and is not exhaustive. The full report contains the complete reference list and detailed citations.

This Report Addresses

• Market intelligence to enable structured strategic decision-making across capture technology providers, EPC contractors, project developers, and energy investors.
• Market size estimation and 10-year revenue forecasts from 2026 to 2036, including validated CAGR and absolute dollar opportunity sizing.
• Growth opportunity mapping across Capture Source, End-Use, and regional demand pockets, with emphasis on dedicated storage expansion and industrial cluster aggregation.
• Segment and regional forecasting covering chemicals, natural gas processing, and power generation capture sources, alongside end-use demand trajectories across enhanced oil recovery and dedicated storage.
• Competition strategy assessment, including capture technology portfolio positioning, storage site development, and project finance expertise shaping final investment decisions.
• Policy and regulatory tracking focused on 45Q tax credit guidance, Class VI well permitting, and emissions trading system evolution influencing project economics.
• Infrastructure development analysis covering CO₂ pipeline networks, storage hub permitting, and industrial cluster formation enabling shared transport and storage.
• Report delivery in PDF, Excel, and presentation-ready formats to support executive planning, project prioritization, and competitive benchmarking.