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Carbon Capture and Storage Market: Technologies, Applications and Key Players

By VistaprojectsOct 27, 202613 min read
Carbon Capture and Storage Market: Technologies, Applications and Key Players

Industrial plants, power stations, and refineries release large volumes of carbon dioxide (CO2), and not all of them can switch quickly to low-emission fuels. One approach to this problem is Carbon Capture and Storage (CCS), in which CO2 is separated from a gas stream, compressed, moved by pipeline, truck, or ship, and injected into rock formations such as saline aquifers, depleted oil and gas fields, and unmineable coal beds.

Supporters value the technology because it allows existing industrial assets to keep operating while their emissions fall, and because captured CO2 can be used to recover additional oil from mature fields. Critics point to high costs, the risk of leaks, unsettled regulation, and the view that CCS cannot replace renewable power. Both arguments feature in project decisions, and they explain why the market depends so heavily on public policy.

Market Introduction

Demand is led by regulation. Emissions limits, carbon pricing, and tax credits give emitters a financial reason to capture CO2, and the effort to cut transition risk by retrofitting existing fossil-fuel assets adds to demand. Growth is held back by high capital costs, a shortage of transport and storage infrastructure, uncertainty over long-term liability and monitoring, and public reluctance toward underground storage. The absence of a priced social cost of carbon also leaves first movers with little direct reward.

As per Coherent Market Insights, the Global Carbon Capture and Storage Market is valued at US$ 7.59 Billion in 2026 and is projected to reach US$ 17.64 Billion by 2033, growing at a compound annual growth rate (CAGR) of 12.8% during the forecast period of 2026 to 2033.

3 Key Market Trends

  1. Better solvents and sorbents: Developers are working on amine solvents that absorb CO2 faster and need less heat to regenerate, since the energy used in regeneration is the largest operating cost of post-combustion plants. Honeywell has tested its advanced solvent process at the National Carbon Capture Center for more than 8,500 hours, and Shell has signed a global alliance with Technip Energies to deliver its CANSOLV amine technology. The impact on the market is lower cost per tonne captured and a wider group of industrial customers for which capture becomes viable.
  2. Shared transport and storage networks: Capture is moving from single-plant projects to hubs in which many emitters use a common pipeline and storage site. Northern Lights in Norway injected its first CO2 in August 2025 and is committed to a second phase of 5 million tonnes a year, and ExxonMobil has built a pipeline network of about 1,300 miles through the Denbury acquisition. The impact is a gradual shift in revenue toward transport and storage services, and lower entry barriers for smaller emitters.
  3. Policy support and direct air capture: In the U.S., the 2025 tax legislation kept the Section 45Q credit at US$ 85 per tonne for point-source capture and US$ 180 per tonne for direct air capture (DAC) with dedicated storage, and extended the same credit value to enhanced oil recovery and utilization. Direct air capture plants are also being scaled up, with Climeworks having begun building its Mammoth plant in Iceland in April 2025. The impact is stronger project economics for retrofits and growing interest in removal technologies that serve corporate climate targets.

Carbon Capture and Storage Market Insights

The market is concentrated in a few technology and service choices. Post-combustion capture is the largest technology, capture is the largest service, and oil and gas is the largest application, which together show that retrofitting existing sites is where most current activity lies. North America leads on regional share, supported by policy and a base of operating projects, while Asia Pacific is the fastest-growing region as China, Japan, and South Korea pursue long-term climate goals.

Project delivery has become the main risk. Several high-profile developments have been delayed or scaled back as demand for low-carbon products has weakened, and Equinor said in February 2026 that CCS demand was developing more slowly than expected. At the same time, artificial intelligence (AI) and Internet of Things (IoT) tools for process optimization and predictive maintenance, government subsidies, and the export of CCS expertise to new regions are creating openings for technology suppliers and engineering contractors.

Market Segmentation

The market is segmented by technology, application, service, and region:

  • By Technology: Pre-combustion, Post-combustion, and Oxy-fuel Combustion.
  • By Application: Oil and Gas, Power Generation, Iron and Steel, Chemical and Petrochemical, Cement, and Others.
  • By Service: Capture, Transportation, Utilization, and Storage.
  • By Region: North America (U.S., Canada), Latin America (Brazil, Argentina, Mexico, and the rest of the region), Europe (Germany, U.K., France, Italy, Russia, and the rest of the region), Asia Pacific (China, India, Japan, Australia, South Korea, Association of Southeast Asian Nations (ASEAN), and the rest of the region), and Middle East and Africa (Gulf Cooperation Council (GCC) countries, South Africa, and the rest of the region).

Detailed Sub-Segment Analysis

  • Post-Combustion (By Technology segment)

Post-combustion is estimated to hold 41.2% of the market in 2026, the largest share based on technology. It removes CO2 from flue gas after fuel has been burned, so a power station or industrial plant can keep its existing process and add a capture unit downstream. The report regards it as the most economical route for retrofitting existing facilities, and newer amine solvents are improving speed and cutting the heat needed for regeneration. Typical uses include coal and gas power plants, cement kilns, and steel and chemical sites. The segment is important because most of the installed emitting base was built before capture was considered.

  • Oil and Gas (By Application segment)

Oil and gas accounts for an estimated 28.8% of the market in 2026, making it the largest application. Natural gas processing yields CO2 streams of high purity that are comparatively inexpensive to capture, and captured CO2 can be injected into mature fields to raise output while depleted reservoirs offer ready storage sites. Operators in the segment also have the subsurface skills and pipeline experience that CCS requires. For these reasons the segment has served as the commercial base from which the technology has spread to power, cement, steel, and chemicals.

U.S. Country Analysis

North America holds 45.8% of the global market in 2026, and the United States is the leading country market, with about 15 large-scale CCS facilities in operation. The 45Q tax credit is the main commercial support, and its 2025 revision put enhanced oil recovery and utilization on the same footing as dedicated storage. Permitting is a bottleneck: the Environmental Protection Agency (EPA) has granted authority over Class VI storage wells to a small group of states, and in October 2026 it finalized that authority for Colorado, which becomes the seventh state to hold it. ExxonMobil began capture and storage for Nucor's plant in Convent, Louisiana, in 2026, and Honeywell's solvent technology was selected for an ammonia project at Wabash Valley in Indiana. Weak demand for low-carbon hydrogen has, however, led ExxonMobil to pause its Baytown project.

Prominent Players in the Carbon Capture and Storage Industry

  • Honeywell International Inc.

Honeywell was founded in 1906 and is headquartered in Charlotte, North Carolina. Its UOP business supplies Advanced Solvent Carbon Capture, an amine process licensed from the University of Texas at Austin that is designed to capture above 95% of CO2, along with CO2 fractionation and hydrogen purification systems.

In October 2025, the process was selected for Wabash Valley Resources in Indiana, a project expected to capture about 1.65 million tons a year and start operation in 2028. The same month Honeywell completed the spin-off of Solstice Advanced Materials.

SWOT Analysis

  • Strengths: Process-technology base at UOP supported by more than 8,500 hours of pilot data.
  • Weaknesses: No commercial reference unit yet operates; the first large installation is due in 2028.
  • Opportunities: Parity of 45Q credits and federally backed blue ammonia and hydrogen schemes.
  • Threats: Corporate separations may spread management attention across several segments.
  • SLB

SLB, formerly Schlumberger, was founded in 1926 in Paris and operates from principal offices in Houston, Paris, London, and The Hague. Its carbon capture activity is conducted through SLB Capturi, a venture with Aker Carbon Capture that closed in 2024, in which SLB holds 80%.

The Brevik cement capture plant in Norway, with a capacity of 400,000 tons a year, opened in June 2025, and SLB Capturi and Aker Solutions were awarded the Hafslund Celsio contract in Oslo in January 2025.

SWOT Analysis

  • Strengths: Delivered the first industrial-scale cement capture plant, at Brevik.
  • Weaknesses: Order backlog is concentrated in Norway and northern Europe, with some timelines running to 2029.
  • Opportunities: Expansion of Northern Lights offers an outlet for emitters across Europe.
  • Threats: Delays in final investment decisions as large operators slow new CCS commitments.
  • Aker Solutions ASA

Aker Solutions traces its origins to 1841, took its current name in 2008, and is based at Fornebu near Oslo, Norway. In carbon capture, it acts as an engineering, procurement, construction, installation, and commissioning contractor.

With SLB Capturi, it won the Hafslund Celsio contract in January 2025, covering capture, liquefaction, and ship-loading facilities at a waste-to-energy plant in Oslo with a capacity of 350,000 tons a year and operation planned for 2029.

SWOT Analysis

  • Strengths: Experience leading the full delivery scope on complex capture plants.
  • Weaknesses: Relies on partners for the capture process technology.
  • Opportunities: Further waste-to-energy and cement projects in Norway.
  • Threats: Long project timelines tied to emitter and storage funding.
  • Siemens Energy AG

Siemens Energy became an independent company on April 1, 2020 and is headquartered in Munich, Germany. It does not license capture processes but supplies the CO2 compression equipment that every capture and injection project requires, from reciprocating to integrally geared units.

Its compressors were selected for Occidental's large direct air capture plant, designed for up to 500,000 tons a year. In August 2024, it partnered with 8 Rivers on supercritical CO2 turbines for power generation. In July 2026, the company announced a change of its corporate name.

SWOT Analysis

  • Strengths: Established record in CO2 compression across enhanced oil recovery, gas processing, and DAC.
  • Weaknesses: Carbon capture is a minor part of a business centered on grids and gas turbines.
  • Opportunities: Compression demand rises with each new capture, pipeline, and injection scheme.
  • Threats: A corporate rebranding may cause temporary friction in customer recognition and vendor records.
  • Shell plc

Shell was founded in 1907 and is headquartered in London. It offers CANSOLV amine capture through Shell Catalysts & Technologies, operates the Quest CCS facility in Alberta, and holds one-third of the Northern Lights joint venture with Equinor and TotalEnergies.

Final investment decisions were taken in June 2024 on the Polaris capture project, with about 650,000 tons a year of capacity, and the Atlas storage hub in Alberta, both due to start at the end of 2028. In July 2025, Shell and Technip Energies formed an exclusive alliance for CANSOLV-based projects.

SWOT Analysis

  • Strengths: Operating CCS experience through Quest and Northern Lights, combined with a licensing business.
  • Weaknesses: Its flagship Alberta projects do not start until late 2028.
  • Opportunities: The Technip Energies alliance widens access to power and industrial customers.
  • Threats: Weak demand for low-carbon products has slowed peers' investment and may affect offtake.
  • Linde plc

Linde plc was formed in 2018 through the combination of Linde AG, founded in 1879, and Praxair, and lists Woking, United Kingdom, as its principal executive office. It supplies industrial gases, CO2 liquefaction, and the HISORP CC adsorption process, which captures CO2 without steam.

NEXTCHEM chose Linde to provide HISORP CC for the ADNOC Hail and Ghasha project in the United Arab Emirates, which is targeted at 1.5 million tons a year. Linde also has an agreement under which ExxonMobil would take up to 2.2 million tons a year of CO2 from its Beaumont hydrogen plant.

SWOT Analysis

  • Strengths: Anchor position in large CO2 offtake agreements and a capture process that avoids steam use.
  • Weaknesses: Dow's Path2Zero complex slipped about two years, with its first phase now planned for late 2029.
  • Opportunities: Demand for sour-gas treatment in the Middle East and for liquefaction in Europe.
  • Threats: Soft demand for blue hydrogen, which prompted ExxonMobil to halt its own Baytown project.
  • Mitsubishi Heavy Industries, Ltd.

Mitsubishi Heavy Industries was established in 1884 and is headquartered in Tokyo. It offers the Advanced KM CDR Process, an amine-based capture technology developed with Kansai Electric Power.

The company received a front-end engineering and design award in 2024 for Heidelberg Materials UK's Padeswood cement plant, with capacity of 800,000 tons a year, which moved into execution after a final investment decision in September 2025. In July 2025 it was awarded basic design for Hokkaido Electric's 5,200 ton-a-day plant, planned as Japan's largest.

SWOT Analysis

  • Strengths: Two full-scale references in cement and power, at Padeswood and Hokkaido.
  • Weaknesses: Neither flagship project is yet in operation, and Padeswood is not due until 2029.
  • Opportunities: Japan's expanding CCS programs, including storage design work for Tomakomai.
  • Threats: Dependence on the timely delivery of UK storage infrastructure for Padeswood.
  • Equinor ASA

Equinor was founded in 1972 as Statoil and is headquartered in Stavanger, Norway. It has injected CO2 at the Sleipner field since 1996 and operates Northern Lights, a joint venture with Shell and TotalEnergies that offers cross-border transport and storage.

Northern Lights received its first CO2 in August 2025 under a first phase of 1.5 million tons a year, and its partners committed about NOK 7.5 billion to a second phase of 5 million tons a year in March 2025. In February 2026, Equinor reported that it would reduce capital spending by about US$ 4 billion across 2026 and 2027, mostly in low-carbon projects.

SWOT Analysis

  • Strengths: Operator of the first commercial cross-border CO2 transport and storage service.
  • Weaknesses: Reductions in low-carbon capital spending reduce the pace of new commitments.
  • Opportunities: Phase 2 capacity and expected demand from German and Dutch emitters.
  • Threats: Customers postponing storage contracts while CCS demand develops more slowly than planned.
  • Exxon Mobil Corporation

ExxonMobil was formed in 1999 through the merger of Exxon and Mobil and is headquartered in Spring, Texas. Its Low Carbon Solutions business acquired Denbury, announced in July 2023 as an all-stock transaction valued at about US$ 4.9 billion, which added roughly 1,300 miles of CO2 pipeline.

In 2026, the company began capture and storage for Nucor's direct reduced iron plant in Convent, Louisiana, and the Railroad Commission of Texas approved its Rose Class VI storage project. It paused its Baytown blue hydrogen project in November 2025 because of weak demand.

SWOT Analysis

  • Strengths: Pipeline network and permitted storage assets on the U.S. Gulf Coast.
  • Weaknesses: The Baytown hydrogen project is on hold, and some regulatory approvals have been narrow.
  • Opportunities: Third-party customers such as Linde, Nucor, and CF Industries.
  • Threats: Limited offtake demand for blue hydrogen and ammonia.

Overall Market Outlook

The carbon capture and storage market is projected to rise from US$ 7.59 billion in 2026 to US$ 17.64 billion in 2033, a CAGR of 12.8%. Regulation, carbon pricing, and tax incentives will continue to provide the main demand signal, supported by efforts to retrofit existing industrial assets.

North America is expected to remain the largest regional market with a 45.8% share in 2026, and Asia Pacific is expected to grow the fastest. Post-combustion technology, the capture service, and oil and gas applications are the leading segments, at 41.2%, 35.1%, and 28.8% respectively.

The pace of growth will depend on how quickly transport and storage networks are built, how permits are granted, and whether low-carbon products find buyers. Developers that can lower capture costs and offer shared infrastructure should be best placed as projects move from announcement to operation.

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  • Current Industry Events of 2026
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Definition

Carbon capture and storage is a group of technologies and services that capture carbon dioxide from power plants and industrial processes, transport it, and inject it into underground geological formations so that it does not enter the atmosphere. It includes pre-combustion, post-combustion, and oxy-fuel capture methods, along with transport, utilization, and storage services.

Disclaimer: This post was provided by a guest contributor. Coherent Market Insights does not endorse any products or services mentioned unless explicitly stated.

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