Carbon Dioxide Utilization 2026-2036: Technologies, Market Forecasts, and Players

Granular forecasts, interview-based company profiles, benchmarking, and market outlook of carbon dioxide utilization technologies in enhanced oil recovery, concrete, fuels (methanol, kerosene, methane, diesel), polymers, and drop-in chemicals

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Carbon capture is on the rise. Global investment in CCUS (carbon capture, utilization, and storage) is increasing, carbon markets are solidifying, and hundreds of millions of tonnes of CO2 will be captured each year globally by 2030. CCU (carbon capture and utilization - also called CO2U) has an intriguing role to play. While the CCUS of the past relied on CO2-EOR (CO2-enhanced oil recovery) and other mature markets such as ammonia, beverages, and food to enable profitable carbon capture and valorize CO2, IDTechEx forecasts significant growth in emerging carbon dioxide utilization applications such as e-fuels, CO2-derived chemicals, and CO2-derived concrete over the coming decade.
 
"Carbon Dioxide Utilization 2026-2036: Technologies, Market Forecasts, and Players" provides comprehensive coverage of the global CO2 utilization space, giving in-depth analysis of the regulatory, technological, economic, and environmental aspects that will impact this emerging market over the next ten years. The report also includes a ten-year granular forecast for the deployment of 10 CO2U product categories, alongside 20+ interview-based company profiles. This report covers analysis, benchmarking, key players, and latest advancements for emerging CO2 utilization areas, enabling emitters to identify the best opportunities in monetizing CO2 recycling.
 
Breakdown of how revenue from the sale of CO2 utilization products will change over the next ten years. IDTechEx considers CO2 utilization for enhanced oil recovery, concrete, SAF (sustainable aviation fuel), methanol, methane, polymers, and chemicals, exploring the technology innovations and profitability within each area. Source: IDTechEx
 
Role of CO2U within the CCUS business model
Modern CCUS has focused on developing permanent geological storage - especially for regions such as Europe with a strong focus on carbon markets (i.e. EU ETS and CBAM) and decarbonization regulations/subsidies; some forms of carbon dioxide utilization double as long-lasting storage (i.e. CO2-derived carbonates in concrete) and will continue to benefit from this trend. However, CO2U also offers the opportunity to treat CO2 as a valuable raw material, instead of just a harmful waste product. This provides a circular economy business case for CCUS across the globe. It can be profitable even for regions where climate change policy action is minimal.
 
CO2-derived chemicals
The chemicals sector has already proven the profitability of CO2U. From mature urea production to polycarbonates (including aromatic polycarbonate, polycarbonate polyols, and polypropylene carbonate), utilization of carbon dioxide has demonstrated performance improvements. As outlined in this IDTechEx report, innovation areas include new target molecules (such as surfactants or polypropylene), catalyst development, and novel synthetic routes. Electrochemistry and biological conversion routes for carbon dioxide utilization are being scaled up across the chemicals sector. This also extends to drop-in chemicals - with key targets including methanol, ethanol, syngas, and acetic acid.
 
CO2-derived fuels
For CO2-derived fuels, the rise in e-fuels will be closely tied to regulation and the continued development of green hydrogen. In China, a green hydrogen powerhouse, significant scale-up of e-methanol is already occurring. In the EU, e-fuel specific mandates for both the maritime and aviation sectors are also driving growth. Therefore, improvements in catalyst development, reactor design, and process integration, to lower costs of e-fuel production are being developed now to enable the continued scaling up of e-fuels.
 
Emerging CO2U applications
Beyond fuels and chemicals, companies are also commercializing ex-situ mineralization processes to produce CO2-derived concrete. Other emerging CCU applications discussed in IDTechEx's "Carbon Dioxide Utilization 2026-2036: Technologies, Market Forecasts, and Players" report range from carbon nanotubes to food and algae, to enhanced gas recovery, and to CO2 batteries for energy storage.
 
Key questions answered in this report
  • What is CO2 utilization and how can it be used to address climate change?
  • How is CO2 used in the industry today?
  • What is the market potential for CO2U?
  • What is the business model for carbon dioxide utilization? Which CO2U applications are profitable?
  • How can CO2 be converted into useful products and what are the key technology innovations here?
  • What is the technology readiness level of CO2U processes?
  • What are the key drivers and hurdles for CO2U market growth?
  • How much does CO2U cost?
  • Who are the key CO2U companies?
 
Key Aspects
This report provides the following information:
 
Technology trends & players analysis
  • Detailed overview of captured carbon dioxide utilization technologies: mineralization, thermal and catalytic processes, electrochemical pathways, biotechnological, and injection processes.
  • Market potential of waste CO₂ utilization in enhanced oil recovery, concrete, fuels, chemicals, and polymers.
  • Technology readiness level (TRL), production capacities, and analysis of leading companies and technologies.
  • Technical challenges and economics of scaling up carbon dioxide utilization operations, including business case and profitability.
  • Latest developments in key policies influencing the Carbon Capture and Utilization (CCU) market.
  • Interview-based primary information from key companies.
 
Market Forecasts & Analysis:
  • 10-year granular market forecasts for both established (CO₂-EOR) and emerging markets of CO₂ utilization, subdivided in 10 application areas.
Report MetricsDetails
Historic Data2023 - 2025
CAGREmerging carbon dioxide utilization market to exceed US$69 billion by 2036. This corresponds to a CAGR of 16%.
Forecast Period2026 - 2036
Forecast UnitsCO₂ utilized (Mtpa), Product revenue (USD$ billion), Product volume (Mtpa)
Regions CoveredWorldwide
Segments CoveredCO₂ enhanced oil recovery, CO₂-derived concrete (ready-mixed concrete mixing, precast concrete curing, and CO₂-derived carbonates), CO₂-derived fuels (methanol, kerosene/SAF, diesel and methane), CO₂-derived polymers and commodity chemicals,
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1.EXECUTIVE SUMMARY
1.1.Why CO₂ utilization?
1.2.Some CO2U applications have already proven profitable
1.3.CO₂ utilization pathways
1.4.Key Considerations for CO₂U Market Growth
1.5.Current scale for CO₂U products
1.6.Emerging carbon dioxide utilization: Key companies
1.7.CO₂-Enhanced oil recovery market
1.8.World's large-scale CO2 capture with CO2-EOR facilities
1.9.CO₂ as a key raw material for synthetic fuels
1.10.Early leaders for CO2-derived fuels use waste "grey" hydrogen
1.11.What is an e-fuel?
1.12.Scale of e-fuels as of 2026
1.13.Project developers in e-fuels by end-product
1.14.Introduction to CO₂U polycarbonates
1.15.Commercialized CO₂-derived polymers and polyols partially utilize CO₂
1.16.CO₂-derived polymers: Summary
1.17.Biological conversion of CO₂ to chemicals landscape: Players and production capacities
1.18.CO₂-Derived Concrete has High Growth Potential
1.19.Business case for CO₂-derived concrete
1.20.What is the Climate Impact of CO₂ Utilization?
1.21.Analyst insight: CO₂U profitability and value proposition
1.22.The evolution of the CO₂U market
1.23.CO2 utilization forecast by category (million metric tonnes of CO₂ per year), 2023-2036
1.24.Access More With an IDTechEx Subscription
2.INTRODUCTION
2.1.Why CO₂ utilization?
2.2.What is CO₂ utilization?
2.3.Mature vs emerging carbon dioxide utilization market sizes
2.4.Why CO₂ utilization should not be overlooked
2.5.How much does CO₂U cost?
2.6.CO₂ utilization pathways
2.7.Some CO₂U applications have already proven profitable
2.8.Carbon pricing and carbon markets
2.9.Compliance carbon pricing mechanisms across the globe
2.10.Alternative to carbon pricing in the US: 45Q tax credits
2.11.Policy support for carbon dioxide utilization
2.12.What is the Climate Impact of CO₂ Utilization?
2.13.Is the origin of CO₂ important?
2.14.What is needed to realize the potential of CO₂ utilization?
2.15.Key Considerations for CO₂U Market Growth
2.16.CO₂U market potential
2.17.Impact of flue gas impurities in CO₂U
2.18.The role of voluntary carbon credits in supporting CO₂ utilization
2.19.CO₂U Products: Utilization ratio and selling price
2.20.Carbon utilization business models
2.21.Current scale for CO₂U products
3.DIRECT CO₂ INJECTION
3.1.CO₂ enhanced oil recovery
3.1.1.What is CO₂-EOR?
3.1.2.What happens to the injected CO₂?
3.1.3.Types of CO₂-EOR designs
3.1.4.CO₂-Enhanced oil recovery market
3.1.5.CO₂-EOR in the US
3.1.6.World's large-scale CO₂ capture with CO₂-EOR facilities
3.1.7.Worldwide CO₂-EOR Potential
3.1.8.CO₂-EOR in China
3.1.9.The economics of promoting CO₂ storage through CO₂-EOR
3.1.10.Climate considerations in CO₂-EOR
3.1.11.CO₂-EOR: Progressive or "Greenwashing"
3.1.12.Future advancements in CO₂-EOR
3.1.13.Key takeaways: Market
3.1.14.Key takeaways: Environmental
3.1.15.Enhanced gas recovery
3.2.CO₂ utilization in greenhouses
3.2.1.CO₂ enrichment in greenhouses
3.2.2.CO₂ enrichment in greenhouses: Pros and cons
3.2.3.Emerging technologies for CO₂ utilization in greenhouses
3.2.4.CO₂ enrichment in greenhouses: Market potential
3.3.CO₂ utilization in energy storage
3.3.1.CO₂ Battery: Carbon dioxide utilization for energy storage
4.CO₂-DERIVED FUELS (E-FUELS)
4.1.Overview
4.1.1.CO₂ as a key raw material for synthetic fuels
4.1.2.Early leaders for CO₂-derived fuels use waste "grey" hydrogen
4.1.3.What is an e-fuel?
4.1.4.Why do we need e-fuels?
4.1.5.Comparison of e-fuels to fossil and biofuels
4.1.6.Overview of energy & carbon flows in e-fuel production
4.1.7.E-fuel production efficiencies
4.1.8.Energy efficiency challenges surrounding e-fuels
4.1.9.e-Fuels must be used in specific contexts
4.1.10.SWOT analysis for e-fuels
4.1.11.e-Fuel specific mandates
4.1.12.Challenges and opportunities for e-fuels
4.1.13.Role of green hydrogen in e-fuel production
4.1.14.Electrolyzer cells, stacks and balance of plant (BOP)
4.1.15.Overview of electrolyzer technologies
4.1.16.Comparison of electrolyzer performance characteristics
4.1.17.Overview of leading electrolyzer OEMs globally
4.1.18.Pros & cons of the four main electrolyzer technologies
4.1.19.The source of captured CO₂ matters
4.1.20.CO2 source for e-fuel production under the EU's Renewable Energy Directive
4.1.21.Most e-fuel projects source biogenic CO₂
4.1.22.Which carbon capture technologies are most mature?
4.1.23.Point-source carbon capture technology providers
4.1.24.e-Fuel production costs vary by region
4.1.25.Scale of e-fuels as of 2026
4.1.26.Technology & process developers in e-fuels by end-product
4.1.27.Project developers in e-fuels by end-product
4.2.Syngas production
4.2.1.Reverse water gas shift converts CO₂ into syngas
4.2.2.Catalysts for reverse water gas shift
4.2.3.RWGS catalyst innovation case study
4.2.4.Reactors for reverse water gas shift
4.2.5.RWGS reactor innovation case study
4.2.6.CO₂-to-syngas players: RWGS and alternatives
4.2.7.Solid oxide electrolyzer (SOEC) co-electrolysis
4.2.8.Comparison of RWGS & SOEC co-electrolysis routes
4.2.9.Alternative CO₂ reduction technologies considerations
4.2.10.Low temperature electrolysis of CO₂
4.2.11.Range of products from low-temperature electrolysis of CO₂
4.2.12.Case study: eChemicles
4.2.13.Direct methanol synthesis from H̀O & CO₂
4.2.14.CO₂ electrolyzer design
4.2.15.Ion exchange membranes in CO₂ electrolyzers for utilization
4.2.16.Polymer-membrane-based CO₂ electrolyzers overview
4.2.17.Techno-economics of CO₂ electrolysis
4.2.18.Chemical looping: CO₂ to CO
4.2.19.Dry methane reforming (DMR)
4.2.20.Key industrial technologies of DMR
4.2.21.Photocatalysis: CO₂ and CH₄ to syngas
4.2.22.Plasma conversion: CO₂ to CO
4.2.23.Status of plasma conversion CO₂U companies
4.2.24.Innovations to improve conversion rates of plasma reactors
4.2.25.Methane pyrolysis and CO₂ utilization
4.2.26.Scale and maturity of CO₂ to syngas technologies
4.3.CO₂U methane production
4.3.1.Methane classifications & power-to-gas (P2G)
4.3.2.Methanation overview
4.3.3.Thermocatalytic vs biocatalytic methanation
4.3.4.Operational e-methane projects
4.3.5.Thermocatalytic methanation technology providers
4.3.6.Comparison of thermocatalytic methanation reactors
4.3.7.Process flow diagrams: Thermocatalytic methanation technologies
4.3.8.Biological methanation technology providers
4.3.9.Ex-situ vs in-situ biological methanation
4.3.10.e-Methane production in Europe
4.3.11.Recent advances in biological e-methane technologies
4.3.12.Economics of e-methane production
4.3.13.SWOT for methanation technology
4.3.14.Power-to-methane projects worldwide - current and announced
4.3.15.e-Methane production in 2026
4.4.CO₂U methanol production
4.4.1.Overview of methanol production & colors
4.4.2.Operational CO₂-derived methanol projects
4.4.3.e-Methanol production
4.4.4.Topsoe's CO₂-to-methanol catalysts
4.4.5.Clariant's CO₂-to-methanol catalysts
4.4.6.Tube cooled reactors for CO₂-to-methanol
4.4.7.Toyo Engineering's small-scale methanol reactor
4.4.8.Key players in methanol synthesis
4.4.9.Key players in methanol synthesis
4.4.10.CO₂-derived methanol: Air Liquide's portfolio
4.4.11.Start-ups with novel methanol synthesis concepts
4.4.12.Start-ups with novel methanol synthesis concepts
4.4.13.Project developers and technology/process developers in e-methanol
4.4.14.e-Methanol production in 2026
4.4.15.Current state of the methanol market
4.4.16.Current state of the methanol market by region
4.4.17.Future methanol applications
4.4.18.Main growth drivers for low-carbon methanol
4.4.19.Methanol is a leading low-carbon shipping fuel
4.4.20.Production costs for green methanol routes
4.4.21.Maximum selling prices for renewable methanol in the EU
4.4.22.e-Methanol project developers - company landscape
4.4.23.Low carbon methanol market by region: Europe and China
4.5.CO₂U kerosene, SAF, gasoline, diesel, and waxes production
4.5.1.Overview of pathways to liquid hydrocarbon e-fuels
4.5.2.Fischer-Tropsch vs Methanol-to-jet for e-SAF
4.5.3.Fischer-Tropsch vs Methanol-to-jet pathway economics
4.5.4.Overview of incumbent FT catalysts
4.5.5.Overview of FT reactor designs
4.5.6.Overview of FT reactors
4.5.7.FT reactor design comparison
4.5.8.FT reactor innovation - microchannel reactors
4.5.9.FT reactor innovation - microstructured reactor
4.5.10.Fischer Tropsch catalysts for e-fuels
4.5.11.Emerging - electrochemical Fischer-Tropsch
4.5.12.Methanol-to-gasoline (MTG) process overview
4.5.13.Conventional fixed bed MTG process
4.5.14.New fluidized bed MTG process
4.5.15.MTG vs MTJ process comparison
4.5.16.Alcohol-to-jet (ATJ) technology providers
4.5.17.Alcohol-to-jet (ATJ) technology providers
4.5.18.Large industrial-scale e-fuel plant concepts
4.5.19.MTG e-fuel plant case study
4.5.20.Modular e-fuel plant concepts
4.5.21.e-SAF project case study - ERA ONE
4.5.22.RWGS-FT e-fuel plant case study
4.5.23.Conversion of existing gas-to-liquid (GTL) facilities to e-fuels
4.5.24.Products slate from Fischer Tropsch for e-SAF
4.5.25.Large-scale e-fuel projects: Operational and under construction
4.5.26.Key suppliers for large-scale e-fuel plants
4.5.27.e-Kerosene, e-gasoline, e-diesel, and e-waxes production in 2026
4.5.28.Government targets & mandates for SAF - focus on EU & UK
4.5.29.CORSIA: Decarbonizing global aviation
4.5.30.Bio-SAF vs e-SAF - the two main pathways to SAF
4.5.31.SAF prices - a key issue holding back adoption
4.5.32.Green hydrogen is the main contributor to e-SAF production costs
4.5.33.Key takeaways and outlook on SAF
5.CO₂-DERIVED CHEMICALS
5.1.Introduction
5.1.1.The chemical industry's decarbonization challenge
5.1.2.CO2-derived chemicals chapter for IDTechEx's CO₂U report
5.1.3.CO2 can be converted into a giant range of chemicals
5.1.4.The basics: Types of CO₂ utilization reactions
5.1.5.Business case for CO₂-derived chemicals
5.2.CO₂-derived polymers
5.2.1.Major pathways to convert CO₂ into polymers
5.2.2.Introduction to CO₂U polycarbonates
5.2.3.Aromatic polycarbonate
5.2.4.Commercialized CO₂-derived polymers and polyols partially utilize CO₂
5.2.5.Polypropylene carbonate (PPC)
5.2.6.Polycarbonate polyols (polyurethane precursor)
5.2.7.Non-isocyanate polyurethane (NIPU) 
5.2.8.Polyhydroxyalkanoates (PHA)
5.2.9.Polyethylene and polypropylene (1/2)
5.2.10.Polyethylene and polypropylene (2/2)
5.2.11.Other CO₂-derived polymers (PET and PLGA)
5.2.12.CO₂-derived polymers: Summary
5.2.13.Catalysts for CO₂-derived polymers
5.2.14.Introduction to surfactants
5.2.15.Development of CO₂-derived surfactants
5.2.16.Other thermochemical routes to CO₂-derived chemicals
5.3.CO₂-derived chemicals: Microbial conversion pathways
5.3.1.CO₂ microbial conversion to produce chemicals
5.3.2.Tools and techniques of synthetic biology
5.3.3.CO₂-consuming microorganisms
5.3.4.Introduction to CRISPR-Cas9
5.3.5.CRISPR-Cas9: A bacterial immune system
5.3.6.Gene-editing considerations for acetogens
5.3.7.LanzaTech
5.3.8.Key challenges in chemosynthesis
5.3.9.Key players in chemosynthetic biological conversion for CO₂ utilization
5.3.10.Biological conversion of CO₂ to chemicals landscape: Players and production capacities
5.3.11.Scaling bioreactors - specific technical challenges
5.3.12.Introduction to cell-free systems
5.3.13.Cell-free versus cell-based systems
5.3.14.Biological conversion pathways to CO₂-derived chemicals studied in academia
5.3.15.Enzyme Immobilization on Electrodes for CO₂U
5.4.CO₂ utilization in microbial conversion: Food and feed production
5.4.1.Food and feed from CO₂
5.4.2.Leading players in food and feed from CO₂
5.4.3."Investment challenges" - CO₂ food company shutdowns in 2025
5.5.CO₂ utilization in algae cultivation
5.5.1.CO₂-enhanced algae or cyanobacteria cultivation
5.5.2.Players and production capacities for CO₂U algae cultivation
5.5.3.Algae has multiple market applications
5.5.4.Key growth criteria in microalgae cultivation
5.5.5.Open vessels for microalgae cultivation
5.5.6.Closed vessels for microalgae cultivation
5.5.7.Open vs closed algae cultivation systems
5.5.8.Microalgae cultivation system suppliers: Photobioreactors (PBRs) & ponds
5.5.9.Algal biofuel development has faced historical challenges
5.5.10.Algal biofuel companies shifted focus or went bust
5.6.CO₂-derived pure carbon products
5.6.1.Overview of CO₂-derived carbon players and production scale
5.6.2.Production processes for nanocarbons made from CO₂
6.CO₂-DERIVED CONCRETE
6.1.Introduction
6.1.1.CO₂-Derived Concrete has High Growth Potential
6.1.2.The Basic Chemistry: CO₂ Mineralization
6.1.3.CO₂ use in the cement and concrete supply chain
6.1.4.Biggest barriers to CO₂U concrete
6.1.5.Construction standards can delay adoption of new materials
6.1.6.Business case for CO₂-derived concrete
6.1.7.Cement reduction and direct sequestration carbon footprint components
6.1.8.Covering the green premium: Carbon credits
6.1.9.Covering the green premium: Book and claim/environmental attribute certificates
6.2.CO₂ utilization in concrete curing or mixing
6.2.1.CO₂ utilization in concrete curing or mixing
6.2.2.Accelerated carbonation mechanism
6.2.3.CO₂ utilization in concrete curing or mixing - production capacities
6.2.4.Technologies for CO₂U during concrete mixing
6.2.5.Technologies for CO₂U precast concrete
6.2.6.Business model considerations: CO₂U precast and readymixed concrete
6.3.CO₂ utilization in carbonates (aggregates and additives)
6.3.1.CO₂ utilization in carbonates (aggregates and additives)
6.3.2.CO₂ utilization in carbonates - production capacities
6.3.3.Ex-situ mineralization reactions
6.3.4.Optimal conditions for accelerated carbonation
6.3.5.Case study: Greenore
6.3.6.Case study: O.C.O Technology
6.3.7.Ex-situ mineralization reactor types
7.CO₂ UTILIZATION MARKET FORECAST
7.1.Forecast methodology
7.1.1.Carbon dioxide utilization forecasting
7.1.2.Changes since the IDTechEx Carbon Dioxide Utilization 2025-2045 report
7.2.CO₂ utilization overall market forecast
7.2.1.CO₂ utilization forecast by category (million metric tonnes of CO₂ per year), 2023-2036
7.2.2.CO₂ utilization forecast by product (million metric tonnes of CO₂ per year), 2023-2036
7.2.3.Carbon utilization annual revenue forecast by category (billion US$), 2023-2036
7.2.4.Carbon utilization annual revenue forecast by product (billion US$), 2023-2036
7.2.5.CO₂ utilization market, forecast discussion
7.2.6.The evolution of the CO₂U market
7.3.CO₂-enhanced oil recovery forecast
7.3.1.CO₂-EOR: Forecast assumptions and methodology
7.3.2.CO₂ utilization forecast in enhanced oil recovery (million metric tonnes of CO₂ per year), 2023-2036
7.3.3.Annual revenue forecast for CO₂-enhanced oil recovery (billion US$), 2023-2036
7.3.4.Captured CO₂ use in EOR, forecast discussion
7.4.CO₂-derived fuels forecast
7.4.1.CO₂-derived fuels: Forecast assumptions and methodology
7.4.2.CO₂ utilization forecast in fuels by fuel type (million metric tonnes of CO₂ per year), 2023-2036
7.4.3.CO₂-derived fuels volume forecast by fuel type (million metric tonnes of fuel per year), 2023-2036
7.4.4.Annual revenue forecast for CO₂-derived fuels by fuel type (billion US$), 2023-2036
7.4.5.CO₂-derived methanol, forecast discussion
7.4.6.CO₂-derived kerosene, CO₂-derived diesel, and CO₂-derived methane, forecast discussion
7.5.CO₂-derived chemicals forecast
7.5.1.CO₂-derived chemicals: Forecast assumptions and methodology
7.5.2.CO₂ utilization forecast in chemicals by end-use (million metric tonnes of CO₂ per year), 2023-2036
7.5.3.CO₂-derived chemicals volume forecast by end-use (million metric tonnes product per year), 2023-2036
7.5.4.Annual revenue forecast for CO₂-derived chemicals by end-use (billion US$), 2023-2036
7.5.5.CO₂-derived chemicals, forecast discussion
7.6.CO₂-derived concrete
7.6.1.CO₂ utilization forecast in concrete by product (million metric tonnes of CO₂ per year), 2023-2036
7.6.2.CO₂-derived concrete volume forecast by product (million metric tonnes of concrete per year), 2023-2036
7.6.3.Annual revenue forecast for CO₂-derived concrete by product (billion US$), 2023-2036
7.6.4.CO₂-derived concrete, forecast discussion
8.COMPANY PROFILES
8.1.Air Liquide: Methanol solutions
8.2.Airovation Technologies
8.3.CarbonBridge
8.4.Clairity Tech
8.5.Concrete4Change
8.6.CyanoCapture
8.7.Dimensional Energy
8.8.eChemicles
8.9.ExxonMobil: Methanol-to-Gasoline (MTG)
8.10.Fortum: INGA Plastic
8.11.GIG Karasek: ECO2CELL
8.12.HIF Global (Highly Innovative Fuels)
8.13.HYCO1
8.14.IHI Corporation: Methanation System
8.15.INERATEC
8.16.Infinium
8.17.LanzaJet
8.18.OXCCU
8.19.Paebbl
8.20.Q Power
8.21.Remediiate
8.22.Sekisui Chemical: Chemical Looping for CO₂ Utilization
8.23.Skytree
8.24.Syklea
8.25.Syzygy Plasmonics
8.26.TES (Tree Energy Solutions): e-NG
8.27.Unilever: Flue2Chem
8.28.Velocys
 

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We take into account the following information and data points where relevant to create our forecasts:
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Carbon Dioxide Utilization 2026-2036: Technologies, Market Forecasts, and Players

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Emerging carbon dioxide utilization market to exceed US$69 billion by 2036
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报告统计信息

幻灯片 330
预测 2036
已发表 Apr 2026
 

预览内容

pdf Document Sample pages
 

Customer Testimonial

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"The resources provided by IDTechEx, such as their insightful reports and analysis, engaging webinars, and knowledgeable analysts, serve as valuable tools and information sources... Their expertise allows us to make data-driven, strategic decisions and ensures we remain aligned with the latest trends and opportunities in the market."
Global Head of Product Management and Marketing
Marquardt GmbH
 
 
 
ISBN: 9781835701751

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