全球二氧化碳捕集、利用與儲存（CCUS）市場（2027-2047 年）

碳捕獲、利用與儲存（CCUS）是一系列技術，目的是從特定的工業排放源或大氣中捕獲二氧化碳，並將其永久儲存在地下或轉化為具有商業性價值的產品。與未採取此類措施的設施相比，將碳捕獲系統應用於傳統發電廠可減少約80-90%的二氧化碳排放。過程包括三個階段：碳捕獲、運輸和儲存（例如在枯竭的油氣天然氣田或深層鹹水含水層等地質構造中）以及碳利用。

二氧化碳已成為全球貿易商品，年消耗量約2.3億噸。最大的消費產業是化肥產業，每年消耗約1.3億噸用於尿素生產；其次是石油和天然氣產業，每年消耗7,000萬至8,000萬噸用於提高石油採收率（EOR）。其他已確立的用途包括食品和飲料生產、金屬加工、冷卻、滅火以及促進溫室植物生長。雖然目前二氧化碳的商業用途大多是直接利用，但人們探索新的方法，透過與礦物和鐵渣等工業廢棄物反應生成穩定的碳酸鹽，將二氧化碳轉化為合成燃料、化學品、聚合物和建材。

碳捕獲、利用與封存（CCUS）經營模式著重減少溫室氣體排放，同時從捕獲的碳中創造經濟價值。營運商從排放源和大氣中捕獲二氧化碳，將其運輸，然後儲存或利用。收入來源包括排碳權、出售捕獲的二氧化碳、提高採收率（EOR）以及政府獎勵，例如美國的45Q稅額扣抵。成本結構主要包括對基礎設施的大量資本投資、持續的營運成本以及持續的研發投資。競爭優勢通常源自於專有的捕獲技術、貫穿整個價值鏈的策略夥伴關係，以及透過共用中心和叢集實現的規模經濟。

法規環境是影響市場成長的關鍵因素。歐盟排放交易體系、美國和中國的合規市場以及自願性碳市場等碳定價機制，結合排放義務，共同決定計畫的可行性。主要障礙仍然存在，例如高昂的碳捕獲成本、不足的運輸和儲存基礎設施、監管的不確定性以及對儲存二氧化碳的長期責任。儘管面臨這些挑戰，碳捕獲、利用與封存（CCUS）技術日益被認為是實現水泥、鋼鐵、化學和藍氫等「難以脫碳產業」（這些產業幾乎沒有其他替代方案）脫碳的關鍵。

這份全面的市場報告對全球碳捕集、利用與封存（CCUS）產業進行了20年的預測分析。報告檢驗了整個價值鏈 - 包括捕集、運輸、利用和儲存 - 並按捕集方法、二氧化碳最終用途、排放源行業和地區分類，提供了詳細的市場預測。報告涵蓋了從成熟的燃燒後化學吸收法到直接大氣捕集（DAC）、電化學轉化和強化礦化等新興技術的完整技術模式。報告還分析了北美、歐洲和亞洲CCUS計畫的經濟效益，以及資本支出（CAPEX）和營運支出（OPEX）的削減策略、碳定價系統、經營模式和政策環境。此外，報告還詳細分析了儲存和運輸，並評估了燃料、化學品、建材、生物生產力提升和提高採收率等利用途徑。最後，報告也介紹了約400家在整個價值鏈中營運的公司概況。

要點如下：

• 一份涵蓋主要二氧化碳排放源、二氧化碳作為一種商品、氣候目標、市場促進因素和趨勢、2020年至2025年行業趨勢、創業投資（VC）資金籌措和政府舉措的執行摘要。
• 到2047年的終端和區域回收能力市場預測、收入潛力、按回收方法分類的產能、按排放源部門分類的點源產能以及2025年至2047年的成本預測。
• 碳捕獲技術，包括燃燒後捕獲、燃燒前捕獲、氧氣燃燒方法、技術成熟度、能源消耗和捕獲成本。
• 對各領域進行詳細分析：藍氫、水泥、鋼鐵、發電和生物能源碳捕獲與封存。
• 直接大氣捕集（DAC）技術、工廠和專案、捕集能力預測、成本和市場前景。
• 二氧化碳去除（CDR）工作包括生物能源碳捕獲與封存（BECCS）、礦化、增強風化、植樹造林、生物炭、土壤碳封存和海洋碳去除。
• 對二氧化碳利用途徑、轉化過程以及在燃料、化學品、建築材料和生物用途的應用進行預測。
• 二氧化碳儲存設施的類型、儲存容量估算、監測技術、二氧化碳驅油和儲存計畫。
• 除了透過管道、船舶、鐵路和卡車運輸二氧化碳外，還有智慧管道網路和樞紐。
• 碳定價和經營模式（例如，45Q稅額扣抵、歐盟排放交易體系（EU ETS）、自願性碳市場）。
• 涵蓋回收、利用、儲存和運輸領域約400家公司的詳細公司簡介 - 包括8 Rivers、3R-BioPhosphate、Adaptavate、Again、Aeroborn B.V.、Aether Diamonds、AirCapture LLC、Aircela Inc、Aurora Hydrogen、Airrane、Air Company、Air Liquide S.A.、Air Products and Chemicals Inc.、Air Protein、Air Quality Solutions Worldwide DAC、Airex Energy、AirHive、Airovation Technologies、Algal Bio Co. Ltd.、Algenol、Algiecel ApS、Andes Ag Inc.、Anhui Conch Cement Group、Applied Carbon、Aqualung Carbon Capture、Arborea、Arca、Ardent Process Technologies、Arkeon Biotechnologies、Asahi Kasei、AspiraDAC Pty Ltd.、Aspiring Materials、Atoco、Avantium N.V.、Avnos Inc.、Aymium、Axens SA、Azolla、Baker Hughes、Banyu Carbon、Barton Blakeley Technologies Ltd.、BASF Group、BC Biocarbon、BP PLC、Beijing Carbontech Industrial Co.、Biochar Now、Bio-Logica Carbon Ltd.、Biomacon GmbH、Biosorra、Blue Planet Systems Corporation、Blusink Ltd.、Boomitra、Brineworks、BluSky Inc.、Breathe Applied Sciences、Bright Renewables、Brilliant Planet Systems、bse Methanol GmbH、C-Capture、Concrete4Change、Cool Planet Energy Systems、Coval Energy B.V.、Covestro AG、C-Quester Inc.、C-Questra、Cquestr8 Limited、CREW Carbon、CyanoCapture、DACMA、D-CRBN、Decarbontek LLC、Deep Branch Biotechnology、Deep Sky、Denbury Inc.、Dimensional Energy、Dioxide Materials、Dioxycle、Drax、Earth RepAIR、Ebb Carbon、Ecocera、eChemicles、ecoLocked GmbH、EDAC Labs、Eion Carbon、Econic Technologies Ltd、EcoClosure LLC、Ecospray Technologies、Ekona Power、Electrochaea GmbH、Emerging Fuels Technology（EFT）、Empower Materials Inc.、Enerkem Inc.、enaDyne GmbH、Entropy Inc.、E-Quester、Equatic、Equinor ASA、ESTECH、Evonik Industries AG、Exomad Green、ExxonMobil、44.01、Fairbrics、Fervo Energy、Fluor Corporation、Fortera Corporation、Fortum、Framergy Inc.、Freres Biochar、FuelCell Energy Inc.、Funga、GE Gas Power (General Electric)、Giammarco Vetrocoke、GigaBlue、GIG Karasek、Giner Inc.、Global Algae Innovations、Global Thermostat LLC、Graphyte、Grassroots Biochar AB、Graviky Labs、 GreenCap Solutions AS、Greenlyte Carbon Technologies、Greeniron H2 AB、Green Sequest、Gulf Coast Sequestration、greenSand、Hago Energetics、Haldor Topsoe、Hazer Group、Heimdal CCU、Heirloom Carbon Technologies、HIF Global、High Hopes Labs、Holcim Group、 Holocene、Holy Grail Inc.、Honeywell、Oy Hydrocell Ltd.、HYCO1、 Hyvegeo、1point8、IHI Corporation、Immaterial Ltd、Ineratec GmbH、Infinitree LLC、Infinium、Innovator Energy、InnoSepra LLC、Inplanet GmbH、InterEarth、ION Clean Energy Inc.、Japan CCS Co. Ltd.、Jupiter Oxygen Corporation、Kawasaki Heavy Industries Ltd.、KC8 Capture Technologies (KC8)、Krajete GmbH、LanzaJet Inc.、Lanzatech、Lectrolyst LLC、Levidian Nanosystems、Limenet、The Linde Group、Liquid Wind AB、Lithos Carbon、Living Carbon、Loam Bio、Low Carbon Korea、Low Carbon Materials、Made of Air GmbH、Mango Materials Inc.、Mantel Capture、Mars Materials、Mattershift、Mati Carbon、MCI Carbon、Membrane Technology and Research（MTR）、Mercurius Biorefining、Minera Systems、Mineral Carbonation International（MCi）Carbon等。

目錄

第1章 執行摘要

第2章 引言

• 什麼是碳捕集與利用利用（CCUS）？
  • 二氧化碳捕集
  • 碳利用
  • 標籤儲存
• 二氧化碳運輸
  • 二氧化碳的運輸方法
  • 安全
• 成本
  • 二氧化碳運輸成本
• 碳權額
• 碳捕獲、利用與封存（CCUS）技術的生命週期評估（LCA）
• 環境影響評估
• 社會接受度與大眾認知
• 二氧化碳的命運

第3章 二氧化碳捕獲

• 以往的二氧化碳捕集案例
• 二氧化碳捕集技術
• 技術成熟度
• 技術選擇
• 捕獲率
• 二氧化碳回收劑的性能
• 能源消耗
• TRL
• 全球二氧化碳捕集管道 - 現有與規劃中
• 從點源捕獲二氧化碳
• 主要二氧化碳捕集過程
• 碳分離技術
• 機會與挑戰
• 二氧化碳捕獲成本
• 二氧化碳捕獲能力
• 直接空氣收集（DAC）
• 混合捕獲系統
• 人工智慧在碳捕獲的應用
• 與再生能源系統整合
• 移動式碳捕獲解決方案
• 二氧化碳捕集與維修

第4章 二氧化碳的去除

• 陸上常規 CDR
• 技術CDR解決方案
• 主要CDR方法
• 新CDR法
• 價值鏈
• 二氧化碳去除技術介紹
• 技術成熟度（TRL）：二氧化碳去除法
• 碳權額
• 監測、報告、檢驗
• 政府政策
• 具有碳去除和儲存能力的生質能源（BiCRS）
• BECCS
• 基於礦化的CDR
• 造林/重新造林
• 海洋基CDR

第5章 二氧化碳的利用

• 概述
• 與其他低碳技術的競爭
• 碳利用經營模式
• 二氧化碳利用途徑
• 轉換過程
• 利用二氧化碳作為燃料
• 二氧化碳在化學領域的應用
• 碳材料中二氧化碳的利用
• 建築和建材中的二氧化碳利用
• 利用二氧化碳提高生物產量
• 二氧化碳在提高石油採收率的應用
• 促進礦化作用
• 碳利用中的數位化解決方案和物聯網
• 區塊鏈在碳排放交易的應用
• 資料中心碳利用
• 與智慧城市基礎建設的融合
• 新型應用

第6章 二氧化碳的儲存

• 介紹
• 二氧化碳儲存場
• 二氧化碳洩漏
• 全球二氧化碳儲存能力
• 二氧化碳儲存計畫
• CO2-EOR
• 成本
• 課題
• 儲存監控技術
• 地下儲氫的協同效應
• 高階建模與仿真
• 儲存位置選擇標準
• 風險評估與管理

第7章 二氧化碳的運輸

• 介紹
• 二氧化碳運輸方法與條件
• 管道運輸二氧化碳
• 船舶運輸二氧化碳
• 鐵路和卡車運輸二氧化碳
• 使用各種方法進行成本分析
• 智慧管道網路
• 交通樞紐和基礎設施
• 安全系統和監控
• 未來交通技術
• 公司

第8章 公司簡介（395家公司簡介）

第9章 附錄

第10章 參考文獻

Carbon Capture, Utilization, and Storage (CCUS) is a suite of technologies that capture carbon dioxide from industrial point sources or directly from the atmosphere, then either store it permanently underground or convert it into commercially valuable products. Applied to a conventional power plant, carbon capture systems can reduce CO₂ emissions by roughly 80–90% compared to an uncontrolled facility. The full chain consists of three stages: capturing the carbon dioxide, transporting it, and either storing it in geological formations - such as depleted oil and gas fields or deep saline aquifers - or utilizing it.

CO₂ is already a globally traded commodity, with around 230 million tonnes consumed each year. The fertilizer industry is the largest consumer, using roughly 130 Mt for urea manufacturing, followed by the oil and gas sector, which uses 70–80 Mt for enhanced oil recovery. Other established applications include food and beverage production, metal fabrication, cooling, fire suppression, and stimulating plant growth in greenhouses. While most commercial use today involves the direct application of CO₂, emerging pathways are transforming it into synthetic fuels, chemicals, polymers, and building materials - often by reacting it with minerals or industrial waste streams such as iron slag to form stable carbonates.

The CCUS business model centers on reducing greenhouse gas emissions while creating economic value from captured carbon. Operators capture CO₂ from emitters or the air, transport it, and store or utilize it. Revenue streams arise from carbon credits, the sale of captured CO₂, enhanced oil recovery, and government incentives such as the US 45Q tax credit. The cost structure is dominated by substantial capital expenditure on infrastructure, ongoing operational costs, and continued R&D investment. Competitive advantage typically derives from proprietary capture technologies, strategic partnerships across the value chain, and economies of scale achieved through shared hubs and clusters.

The regulatory environment is the decisive factor shaping market growth. Carbon pricing mechanisms - including the EU Emissions Trading Scheme, compliance markets in the US and China, and voluntary carbon markets - alongside emissions-reduction mandates determine project viability. Key barriers remain high capture costs, transport and storage infrastructure gaps, regulatory uncertainty, and long-term liability for stored CO₂. Despite these challenges, CCUS is increasingly viewed as indispensable for decarbonizing hard-to-abate sectors such as cement, steel, chemicals, and blue hydrogen, where few alternative pathways exist.

This comprehensive market report provides an in-depth analysis of the global CCUS industry across a twenty-year forecast horizon. It examines the entire value chain - capture, transport, utilization, and storage - and delivers granular market forecasts segmented by capture type, CO₂ endpoint, source sector, and region. The report covers the full technology landscape, from mature post-combustion chemical absorption through to emerging direct air capture (DAC), electrochemical conversion, and enhanced mineralization. It analyzes the economics of CCUS projects, CAPEX and OPEX reduction strategies, carbon pricing regimes, business models, and the policy environment across North America, Europe, and Asia. The report also assesses utilization pathways - fuels, chemicals, building materials, biological yield-boosting, and enhanced oil recovery - alongside detailed storage and transportation analysis. It concludes with profiles of nearly 400 companies operating across the value chain.

Key content areas include:

• Executive summary covering main CO₂ emission sources, CO₂ as a commodity, climate targets, market drivers and trends, industry developments 2020–2025, VC funding, and government initiatives.
• Market forecasts for capture capacity by endpoint and region to 2047, revenue potential, capacity by capture type, point-source capacity by source sector, and cost projections 2025–2047.
• Carbon capture technologies including post-combustion, pre-combustion, oxy-fuel combustion, technology readiness levels, energy consumption, and capture costs.
• Sector deep-dives into blue hydrogen, cement, steel, power generation, and BECCS.
• Direct Air Capture (DAC) technologies, plants and projects, capacity forecasts, costs, and market prospects.
• Carbon dioxide removal (CDR) covering BECCS, mineralization, enhanced weathering, afforestation, biochar, soil carbon sequestration, and ocean-based CDR.
• Carbon dioxide utilization pathways, conversion processes, and forecasts for fuels, chemicals, construction materials, and biological applications.
• Carbon dioxide storage site types, capacity estimates, monitoring technologies, CO₂-EOR, and storage projects.
• Carbon dioxide transportation by pipeline, ship, rail, and truck, plus smart pipeline networks and hubs.
• Carbon pricing and business models including 45Q tax credits, the EU ETS, and voluntary carbon markets.
• Nearly 400 detailed company profiles spanning capture, utilization, storage, and transportation including 8 Rivers, 3R-BioPhosphate, Adaptavate, Again, Aeroborn B.V., Aether Diamonds, AirCapture LLC, Aircela Inc, Aurora Hydrogen, Airrane, Air Company, Air Liquide S.A., Air Products and Chemicals Inc., Air Protein, Air Quality Solutions Worldwide DAC, Airex Energy, AirHive, Airovation Technologies, Algal Bio Co. Ltd., Algenol, Algiecel ApS, Andes Ag Inc., Anhui Conch Cement Group, Applied Carbon, Aqualung Carbon Capture, Arborea, Arca, Ardent Process Technologies, Arkeon Biotechnologies, Asahi Kasei, AspiraDAC Pty Ltd., Aspiring Materials, Atoco, Avantium N.V., Avnos Inc., Aymium, Axens SA, Azolla, Baker Hughes, Banyu Carbon, Barton Blakeley Technologies Ltd., BASF Group, BC Biocarbon, BP PLC, Beijing Carbontech Industrial Co., Biochar Now, Bio-Logica Carbon Ltd., Biomacon GmbH, Biosorra, Blue Planet Systems Corporation, Blusink Ltd., Boomitra, Brineworks, BluSky Inc., Breathe Applied Sciences, Bright Renewables, Brilliant Planet Systems, bse Methanol GmbH, C-Capture, Concrete4Change, Cool Planet Energy Systems, Coval Energy B.V., Covestro AG, C-Quester Inc., C-Questra, Cquestr8 Limited, CREW Carbon, CyanoCapture, DACMA, D-CRBN, Decarbontek LLC, Deep Branch Biotechnology, Deep Sky, Denbury Inc., Dimensional Energy, Dioxide Materials, Dioxycle, Drax, Earth RepAIR, Ebb Carbon, Ecocera, eChemicles, ecoLocked GmbH, EDAC Labs, Eion Carbon, Econic Technologies Ltd, EcoClosure LLC, Ecospray Technologies, Ekona Power, Electrochaea GmbH, Emerging Fuels Technology (EFT), Empower Materials Inc., Enerkem Inc., enaDyne GmbH, Entropy Inc., E-Quester, Equatic, Equinor ASA, ESTECH, Evonik Industries AG, Exomad Green, ExxonMobil, 44.01, Fairbrics, Fervo Energy, Fluor Corporation, Fortera Corporation, Fortum, Framergy Inc., Freres Biochar, FuelCell Energy Inc., Funga, GE Gas Power (General Electric), Giammarco Vetrocoke, GigaBlue, GIG Karasek, Giner Inc., Global Algae Innovations, Global Thermostat LLC, Graphyte, Grassroots Biochar AB, Graviky Labs, GreenCap Solutions AS, Greenlyte Carbon Technologies, Greeniron H2 AB, Green Sequest, Gulf Coast Sequestration, greenSand, Hago Energetics, Haldor Topsoe, Hazer Group, Heimdal CCU, Heirloom Carbon Technologies, HIF Global, High Hopes Labs, Holcim Group, Holocene, Holy Grail Inc., Honeywell, Oy Hydrocell Ltd., HYCO1, Hyvegeo, 1point8, IHI Corporation, Immaterial Ltd, Ineratec GmbH, Infinitree LLC, Infinium, Innovator Energy, InnoSepra LLC, Inplanet GmbH, InterEarth, ION Clean Energy Inc., Japan CCS Co. Ltd., Jupiter Oxygen Corporation, Kawasaki Heavy Industries Ltd., KC8 Capture Technologies (KC8), Krajete GmbH, LanzaJet Inc., Lanzatech, Lectrolyst LLC, Levidian Nanosystems, Limenet, The Linde Group, Liquid Wind AB, Lithos Carbon, Living Carbon, Loam Bio, Low Carbon Korea, Low Carbon Materials, Made of Air GmbH, Mango Materials Inc., Mantel Capture, Mars Materials, Mattershift, Mati Carbon, MCI Carbon, Membrane Technology and Research (MTR), Mercurius Biorefining, Minera Systems, Mineral Carbonation International (MCi) Carbon and more......

Table of Contents

1 EXECUTIVE SUMMARY

• 1.1 Main sources of carbon dioxide emissions
• 1.2 CO2 as a commodity
• 1.3 Meeting climate targets
• 1.4 Market drivers and trends
• 1.5 The current market and future outlook
• 1.6 CCUS investments
  • 1.6.1 Venture Capital Funding
    • 1.6.1.1 2010-2026
    • 1.6.1.2 CCUS VC deals 2022-2026
• 1.7 Government CCUS initiatives and policy environment
• 1.8 Market map
• 1.9 Commercial CCUS facilities and projects
  • 1.9.1 Facilities
    • 1.9.1.1 Operational
    • 1.9.1.2 Under development/construction
• 1.10 Economics of CCUS projects
  • 1.10.1 CAPEX Reduction Strategies
  • 1.10.2 OPEX Reduction Approaches
  • 1.10.3 Emerging Technology Solutions
• 1.11 CCUS Value Chain
• 1.12 Key market barriers for CCUS
• 1.13 CCUS and the energy trilemma
• 1.14 Growth markets for CUS
• 1.15 Carbon pricing
  • 1.15.1 Compliance Carbon Pricing Mechanisms
  • 1.15.2 Alternative to Carbon Pricing: 45Q Tax Credits
  • 1.15.3 Business models
    • 1.15.3.1 Full chain
    • 1.15.3.2 Networks and hub model
    • 1.15.3.3 Partial-chain
    • 1.15.3.4 Carbon dioxide utilization business model
  • 1.15.4 The European Union Emission Trading Scheme (EU ETS)
  • 1.15.5 Carbon Pricing in the US
  • 1.15.6 Carbon Pricing in China
  • 1.15.7 Voluntary Carbon Markets
  • 1.15.8 Challenges with Carbon Pricing
• 1.16 Global market forecasts
  • 1.16.1 CCUS capture capacity forecast by end point
  • 1.16.2 Capture capacity by region to 2047, Mtpa
  • 1.16.3 Revenues
  • 1.16.4 CCUS capacity forecast by capture type
  • 1.16.5 Cost projections 2025-2047

2 INTRODUCTION

• 2.1 What is CCUS?
  • 2.1.1 Carbon Capture
    • 2.1.1.1 Source Characterization
    • 2.1.1.2 Purification
    • 2.1.1.3 CO2 capture technologies
  • 2.1.2 Carbon Utilization
    • 2.1.2.1 CO2 utilization pathways
  • 2.1.3 Carbon storage
    • 2.1.3.1 Passive storage
    • 2.1.3.2 Enhanced oil recovery
• 2.2 Transporting CO2
  • 2.2.1 Methods of CO2 transport
    • 2.2.1.1 Pipeline
    • 2.2.1.2 Ship
    • 2.2.1.3 Road
    • 2.2.1.4 Rail
  • 2.2.2 Safety
• 2.3 Costs
  • 2.3.1 Cost of CO2 transport
• 2.4 Carbon credits
• 2.5 Life Cycle Assessment (LCA) of CCUS Technologies
• 2.6 Environmental Impact Assessment
• 2.7 Social acceptance and public perception
• 2.8 Fate of CO2

3 CARBON DIOXIDE CAPTURE

• 3.1 Historical CO2 capture
• 3.2 CO₂ capture technologies
• 3.3 Maturity of technologies
• 3.4 Technology selection
• 3.5 Capture Percentages
  • 3.5.1 >90% capture rate
  • 3.5.2 99% capture rate
• 3.6 CO2 capture agent performance
• 3.7 Energy Consumption
• 3.8 TRL
• 3.9 Global Pipeline of Carbon Capture Facilities-Current and PLanned
• 3.10 CO2 capture from point sources
  • 3.10.1 Energy Availability and Costs
  • 3.10.2 Power plants with CCUS
  • 3.10.3 Transportation
  • 3.10.4 Global point source CO2 capture capacities
  • 3.10.5 Blue hydrogen
    • 3.10.5.1 Steam-methane reforming (SMR)
    • 3.10.5.2 Autothermal reforming (ATR)
    • 3.10.5.3 Partial oxidation (POX)
    • 3.10.5.4 Sorption Enhanced Steam Methane Reforming (SE-SMR)
    • 3.10.5.5 Pre-Combustion vs. Post-Combustion carbon capture
    • 3.10.5.6 Blue hydrogen projects
    • 3.10.5.7 Costs
    • 3.10.5.8 Market players
  • 3.10.6 Carbon capture in cement
    • 3.10.6.1 CCUS Projects
    • 3.10.6.2 Carbon capture technologies
    • 3.10.6.3 Costs
    • 3.10.6.4 Challenges
  • 3.10.7 Maritime carbon capture
• 3.11 Main carbon capture processes
  • 3.11.1 Materials
  • 3.11.2 Natural Gas Sweetening
  • 3.11.3 Post-combustion
    • 3.11.3.1 Chemicals/Solvents
    • 3.11.3.2 Amine-based post-combustion CO₂ absorption
    • 3.11.3.3 Physical absorption solvents
    • 3.11.3.4 Emerging Solvents for Carbon Capture
    • 3.11.3.5 Chilled Ammonia Process (CAP)
    • 3.11.3.6 Molten Borates
    • 3.11.3.7 Costs
    • 3.11.3.8 Alternatives to Solvent-Based Carbon Capture
  • 3.11.4 Oxy-fuel combustion
    • 3.11.4.1 Oxyfuel CCUS cement projects
    • 3.11.4.2 Chemical Looping-Based Capture
  • 3.11.5 Liquid or supercritical CO2: Allam-Fetvedt Cycle
  • 3.11.6 Pre-combustion
• 3.12 Carbon separation technologies
  • 3.12.1 Absorption capture
  • 3.12.2 Adsorption capture
    • 3.12.2.1 Solid sorbent-based CO₂ separation
    • 3.12.2.2 Metal organic framework (MOF) adsorbents
    • 3.12.2.3 Zeolite-based adsorbents
    • 3.12.2.4 Solid amine-based adsorbents
    • 3.12.2.5 Carbon-based adsorbents
    • 3.12.2.6 Polymer-based adsorbents
    • 3.12.2.7 Solid sorbents in pre-combustion
    • 3.12.2.8 Sorption Enhanced Water Gas Shift (SEWGS)
    • 3.12.2.9 Solid sorbents in post-combustion
  • 3.12.3 Membranes
    • 3.12.3.1 Membrane-based CO₂ separation
    • 3.12.3.2 Gas Separation Membranes
    • 3.12.3.3 Post-combustion CO₂ capture
    • 3.12.3.4 Facilitated transport membranes
    • 3.12.3.5 Pre-combustion capture
    • 3.12.3.6 Advanced membrane materials
      • 3.12.3.6.1 Graphene-based membranes
      • 3.12.3.6.2 Metal-organic framework (MOF) membranes
    • 3.12.3.7 Membranes for Direct Air Capture
  • 3.12.4 Liquid or supercritical CO2 (Cryogenic) capture
  • 3.12.5 Calcium Looping
    • 3.12.5.1 Calix Advanced Calciner
  • 3.12.6 Other technologies
    • 3.12.6.1 LEILAC process
    • 3.12.6.2 CO₂ capture with Solid Oxide Fuel Cells (SOFCs)
    • 3.12.6.3 CO₂ capture with Molten Carbonate Fuel Cells (MCFCs)
    • 3.12.6.4 Microalgae Carbon Capture
  • 3.12.7 Comparison of key separation technologies
  • 3.12.8 Technology readiness level (TRL) of gas separation technologies
• 3.13 Opportunities and barriers
• 3.14 Costs of CO2 capture
• 3.15 CO2 capture capacity
• 3.16 Direct air capture (DAC)
  • 3.16.1 Technology description
    • 3.16.1.1 Sorbent-based CO2 Capture
    • 3.16.1.2 Solvent-based CO2 Capture
    • 3.16.1.3 DAC Solid Sorbent Swing Adsorption Processes
    • 3.16.1.4 Electro-Swing Adsorption (ESA) of CO2 for DAC
    • 3.16.1.5 Solid and liquid DAC
  • 3.16.2 Advantages of DAC
  • 3.16.3 Deployment
  • 3.16.4 Point source carbon capture versus Direct Air Capture
  • 3.16.5 Technologies
    • 3.16.5.1 Solid sorbents
    • 3.16.5.2 Liquid sorbents
    • 3.16.5.3 Liquid solvents
    • 3.16.5.4 Airflow equipment integration
    • 3.16.5.5 Passive Direct Air Capture (PDAC)
    • 3.16.5.6 Direct conversion
    • 3.16.5.7 Co-product generation
    • 3.16.5.8 Low Temperature DAC
    • 3.16.5.9 Regeneration methods
  • 3.16.6 Electricity and Heat Sources
  • 3.16.7 Commercialization and plants
  • 3.16.8 Metal-organic frameworks (MOFs) in DAC
  • 3.16.9 DAC plants and projects-current and planned
  • 3.16.10 Capacity forecasts
  • 3.16.11 Costs
  • 3.16.12 Market challenges for DAC
  • 3.16.13 Market prospects for direct air capture
  • 3.16.14 Players and production
  • 3.16.15 Co2 utilization pathways
  • 3.16.16 Markets for Direct Air Capture and Storage (DACCS)
• 3.17 Hybrid Capture Systems
• 3.18 Artificial Intelligence in Carbon Capture
• 3.19 Integration with Renewable Energy Systems
• 3.20 Mobile Carbon Capture Solutions
• 3.21 Carbon Capture Retrofitting

4 CARBON DIOXIDE REMOVAL

• 4.1 Conventional CDR on land
  • 4.1.1 Wetland and peatland restoration
  • 4.1.2 Cropland, grassland, and agroforestry
• 4.2 Technological CDR Solutions
• 4.3 Main CDR methods
• 4.4 Novel CDR methods
• 4.5 Value chain
• 4.6 Deployment of carbon dioxide removal technologies
• 4.7 Technology Readiness Level (TRL): Carbon Dioxide Removal Methods
• 4.8 Carbon Credits
  • 4.8.1 Description
  • 4.8.2 Carbon pricing
  • 4.8.3 Carbon Removal vs Carbon Avoidance Offsetting
  • 4.8.4 Carbon credit certification
  • 4.8.5 Carbon registries
  • 4.8.6 Carbon credit quality
  • 4.8.7 Voluntary Carbon Credits
    • 4.8.7.1 Definition
    • 4.8.7.2 Purchasing
    • 4.8.7.3 Key Market Players and Projects
    • 4.8.7.4 Pricing
  • 4.8.8 Compliance Carbon Credits
    • 4.8.8.1 Definition
    • 4.8.8.2 Market players
    • 4.8.8.3 Pricing
  • 4.8.9 Durable carbon dioxide removal (CDR) credits
  • 4.8.10 Corporate commitments
  • 4.8.11 Increasing government support and regulations
  • 4.8.12 Advancements in carbon offset project verification and monitoring
  • 4.8.13 Potential for blockchain technology in carbon credit trading
  • 4.8.14 Buying and Selling Carbon Credits
    • 4.8.14.1 Carbon credit exchanges and trading platforms
    • 4.8.14.2 Over-the-counter (OTC) transactions
    • 4.8.14.3 Pricing mechanisms and factors affecting carbon credit prices
  • 4.8.15 Certification
  • 4.8.16 Challenges and risks
• 4.9 Monitoring, reporting, and verification
• 4.10 Government policies
• 4.11 Bioenergy with Carbon Removal and Storage (BiCRS)
  • 4.11.1 Feedstocks
  • 4.11.2 BiCRS Conversion Pathways
• 4.12 BECCS
  • 4.12.1 Technology overview
    • 4.12.1.1 Point Source Capture Technologies for BECCS
    • 4.12.1.2 Energy efficiency
    • 4.12.1.3 Heat generation
    • 4.12.1.4 Waste-to-Energy
    • 4.12.1.5 Blue Hydrogen Production
  • 4.12.2 Biomass conversion
  • 4.12.3 CO₂ capture technologies
  • 4.12.4 BECCS facilities
  • 4.12.5 Cost analysis
  • 4.12.6 BECCS carbon credits
  • 4.12.7 Sustainability
  • 4.12.8 Challenges
• 4.13 Mineralization-based CDR
  • 4.13.1 Overview
  • 4.13.2 Storage in CO₂-Derived Concrete
  • 4.13.3 Oxide Looping
  • 4.13.4 Enhanced Weathering
    • 4.13.4.1 Overview
    • 4.13.4.2 Benefits
    • 4.13.4.3 Monitoring, Reporting, and Verification (MRV)
    • 4.13.4.4 Applications
    • 4.13.4.5 Commercial activity and companies
    • 4.13.4.6 Challenges and Risks
  • 4.13.5 Cost analysis
  • 4.13.6 SWOT analysis
• 4.14 Afforestation/Reforestation
  • 4.14.1 Overview
  • 4.14.2 Carbon dioxide removal methods
    • 4.14.2.1 Nature-based CDR
    • 4.14.2.2 Land-based CDR
  • 4.14.3 Technologies
    • 4.14.3.1 Remote Sensing
    • 4.14.3.2 Drone technology and robotics
    • 4.14.3.3 Automated forest fire detection systems
    • 4.14.3.4 AI/ML
    • 4.14.3.5 Genetics
  • 4.14.4 Trends and Opportunities
  • 4.14.5 Challenges and Risks
    • 4.14.5.1 SWOT analysis
    • 4.14.5.2 Soil carbon sequestration (SCS)
      • 4.14.5.2.1 Overview
      • 4.14.5.2.2 Practices
      • 4.14.5.2.3 Measuring and Verifying
      • 4.14.5.2.4 Trends and Opportunities
      • 4.14.5.2.5 Carbon credits
      • 4.14.5.2.6 Challenges and Risks
      • 4.14.5.2.7 SWOT analysis
    • 4.14.5.3 Biochar
      • 4.14.5.3.1 What is biochar?
      • 4.14.5.3.2 Carbon sequestration
      • 4.14.5.3.3 Properties of biochar
      • 4.14.5.3.4 Feedstocks
      • 4.14.5.3.5 Production processes
        • 4.14.5.3.5.1 Sustainable production
        • 4.14.5.3.5.2 Pyrolysis
          • 4.14.5.3.5.2.1 Slow pyrolysis
          • 4.14.5.3.5.2.2 Fast pyrolysis
        • 4.14.5.3.5.3 Gasification
        • 4.14.5.3.5.4 Hydrothermal carbonization (HTC)
        • 4.14.5.3.5.5 Torrefaction
        • 4.14.5.3.5.6 Equipment manufacturers
      • 4.14.5.3.6 Biochar pricing
      • 4.14.5.3.7 Biochar carbon credits
        • 4.14.5.3.7.1 Overview
        • 4.14.5.3.7.2 Removal and reduction credits
        • 4.14.5.3.7.3 The advantage of biochar
        • 4.14.5.3.7.4 Prices
        • 4.14.5.3.7.5 Buyers of biochar credits
        • 4.14.5.3.7.6 Competitive materials and technologies
      • 4.14.5.3.8 Bio-oil based CDR
      • 4.14.5.3.9 Biomass burial for CO₂ removal
      • 4.14.5.3.10 Bio-based construction materials for CDR
      • 4.14.5.3.11 SWOT analysis
• 4.15 Ocean-based CDR
  • 4.15.1 Overview
  • 4.15.2 CO₂ capture from seawater
  • 4.15.3 Ocean fertilisation
    • 4.15.3.1 Biotic Methods
    • 4.15.3.2 Coastal blue carbon ecosystems
    • 4.15.3.3 Algal Cultivation
    • 4.15.3.4 Artificial Upwelling
  • 4.15.4 Ocean alkalinisation
    • 4.15.4.1 Electrochemical ocean alkalinity enhancement
    • 4.15.4.2 Direct Ocean Capture
    • 4.15.4.3 Artificial Downwelling
  • 4.15.5 Monitoring, Reporting, and Verification (MRV)
  • 4.15.6 Ocean-based CDR Carbon Credits
  • 4.15.7 Trends and Opportunities
  • 4.15.8 Ocean-based carbon credits
  • 4.15.9 Cost analysis
  • 4.15.10 Challenges and Risks
  • 4.15.11 SWOT analysis
  • 4.15.12 Companies

5 CARBON DIOXIDE UTILIZATION

• 5.1 Overview
  • 5.1.1 Current market status
• 5.2 Competition with other low carbon technologies
• 5.3 Carbon utilization business models
  • 5.3.1 Benefits of carbon utilization
  • 5.3.2 Market challenges
• 5.4 Co2 utilization pathways
• 5.5 Conversion processes
  • 5.5.1 Thermochemical
    • 5.5.1.1 Process overview
    • 5.5.1.2 Plasma-assisted CO2 conversion
  • 5.5.2 Electrochemical conversion of CO2
    • 5.5.2.1 Process overview
  • 5.5.3 Photocatalytic and photothermal catalytic conversion of CO2
  • 5.5.4 Catalytic conversion of CO2
  • 5.5.5 Biological conversion of CO2
  • 5.5.6 Copolymerization of CO2
  • 5.5.7 Mineral carbonation
• 5.6 CO2-Utilization in Fuels
  • 5.6.1 Overview
  • 5.6.2 Production routes
  • 5.6.3 CO₂ -fuels in road vehicles
  • 5.6.4 CO₂ -fuels in shipping
  • 5.6.5 CO₂ -fuels in aviation
  • 5.6.6 Green hydrogen for e-fuels
  • 5.6.7 Production routes
  • 5.6.8 Costs of e-fuel
  • 5.6.9 Power-to-methane
    • 5.6.9.1 Thermocatalytic pathway to e-methane
    • 5.6.9.2 Biological fermentation
    • 5.6.9.3 Costs
  • 5.6.10 Algae based biofuels
  • 5.6.11 DAC for e-fuels
  • 5.6.12 Syngas Production Options
  • 5.6.13 CO₂-fuels from solar
  • 5.6.14 Companies
  • 5.6.15 Challenges
  • 5.6.16 Global market forecasts
• 5.7 CO2-Utilization in Chemicals
  • 5.7.1 Overview
  • 5.7.2 Carbon nanostructures
  • 5.7.3 Scalability
  • 5.7.4 Pathways
    • 5.7.4.1 Thermochemical
    • 5.7.4.2 Electrochemical
      • 5.7.4.2.1 Low-Temperature Electrochemical CO₂ Reduction
      • 5.7.4.2.2 High-Temperature Solid Oxide Electrolyzers
      • 5.7.4.2.3 Coupling H2 and Electrochemical CO₂ Reduction
    • 5.7.4.3 Microbial conversion
    • 5.7.4.4 Other
      • 5.7.4.4.1 Photocatalytic
      • 5.7.4.4.2 Plasma technology
  • 5.7.5 Applications
    • 5.7.5.1 Urea production
    • 5.7.5.2 CO₂-derived polymers
      • 5.7.5.2.1 Pathways
      • 5.7.5.2.2 Polycarbonate from CO₂
      • 5.7.5.2.3 Methanol to olefins (polypropylene production)
      • 5.7.5.2.4 Ethanol to polymers
    • 5.7.5.3 Inert gas in semiconductor manufacturing
  • 5.7.6 Companies
  • 5.7.7 Global market forecasts
• 5.8 CO₂-Utilization in Carbon Materials
  • 5.8.1 Overview
  • 5.8.2 The triple-revenue thesis
  • 5.8.3 Production routes
  • 5.8.4 Output materials
  • 5.8.5 Net-negative carbon claim quantification
  • 5.8.6 Pricing comparison
  • 5.8.7 Market forecasts
• 5.9 CO2-Utilization in Construction and Building Materials
  • 5.9.1 Overview
  • 5.9.2 Market drivers
  • 5.9.3 Key CO₂ utilization technologies in construction
  • 5.9.4 Carbonated aggregates
  • 5.9.5 Additives during mixing
  • 5.9.6 Concrete curing
  • 5.9.7 Costs
  • 5.9.8 Market trends and business models
  • 5.9.9 Carbon credits
  • 5.9.10 Companies
  • 5.9.11 Challenges
  • 5.9.12 Global market forecasts
• 5.10 CO2-Utilization in Biological Yield-Boosting
  • 5.10.1 Overview
  • 5.10.2 CO₂ utilization in biological processes
  • 5.10.3 Applications
    • 5.10.3.1 Greenhouses
      • 5.10.3.1.1 CO₂ enrichment
    • 5.10.3.2 Algae cultivation
      • 5.10.3.2.1 CO₂-enhanced algae cultivation: open systems
      • 5.10.3.2.2 CO₂-enhanced algae cultivation: closed systems
    • 5.10.3.3 Microbial conversion
    • 5.10.3.4 Food and feed production
  • 5.10.4 Companies
  • 5.10.5 Global market forecasts
• 5.11 CO₂ Utilization in Enhanced Oil Recovery
  • 5.11.1 Overview
    • 5.11.1.1 Process
    • 5.11.1.2 CO₂ sources
  • 5.11.2 CO₂-EOR facilities and projects
  • 5.11.3 Challenges
  • 5.11.4 Global market forecasts
• 5.12 Enhanced mineralization
  • 5.12.1 Advantages
  • 5.12.2 In situ and ex-situ mineralization
  • 5.12.3 Enhanced mineralization pathways
  • 5.12.4 Challenges
• 5.13 Digital Solutions and IoT in Carbon Utilization
• 5.14 Blockchain Applications in Carbon Trading
• 5.15 Carbon Utilization in Data Centers
• 5.16 Integration with Smart City Infrastructure
• 5.17 Novel Applications
  • 5.17.1 3D Printing with CO2-derived Materials
  • 5.17.2 CO2 in Energy Storage
  • 5.17.3 CO2 in Electronics Manufacturing

6 CARBON DIOXIDE STORAGE

• 6.1 Introduction
• 6.2 CO2 storage sites
  • 6.2.1 Storage types for geologic CO2 storage
  • 6.2.2 Oil and gas fields
  • 6.2.3 Saline formations
  • 6.2.4 Coal seams and shale
  • 6.2.5 Basalts and ultra-mafic rocks
• 6.3 CO₂ leakage
• 6.4 Global CO2 storage capacity
• 6.5 CO₂ Storage Projects
• 6.6 CO₂ -EOR
  • 6.6.1 Description
  • 6.6.2 Injected CO₂
  • 6.6.3 CO₂ capture with CO₂ -EOR facilities
  • 6.6.4 Companies
  • 6.6.5 Economics
• 6.7 Costs
• 6.8 Challenges
• 6.9 Storage Monitoring Technologies
• 6.10 Underground Hydrogen Storage Synergies
• 6.11 Advanced Modelling and Simulation
• 6.12 Storage Site Selection Criteria
• 6.13 Risk Assessment and Management

7 CARBON DIOXIDE TRANSPORTATION

• 7.1 Introduction
• 7.2 CO₂ transportation methods and conditions
• 7.3 CO₂ transportation by pipeline
• 7.4 CO₂ transportation by ship
• 7.5 CO₂ transportation by rail and truck
• 7.6 Cost analysis of different methods
• 7.7 Smart Pipeline Networks
• 7.8 Transportation Hubs and Infrastructure
• 7.9 Safety Systems and Monitoring
• 7.10 Future Transportation Technologies
• 7.11 Companies

8 COMPANY PROFILES (395 company profiles)

9 APPENDICES

• 9.1 Abbreviations
• 9.2 Research Methodology
• 9.3 Definition of Carbon Capture, Utilisation and Storage (CCUS)
• 9.4 Technology Readiness Level (TRL)

10 REFERENCES

List of Tables

• Table 1. Carbon Capture, Utilisation and Storage (CCUS) market drivers and trends.
• Table 2. Global Investment in Carbon Capture Technologies (2010-2024)
• Table 3. CCUS VC deals 2022-2025.
• Table 4. CCUS government funding and investment-10 year outlook.
• Table 5. Global Commercial CCUS Facilities — In Operation (2026)
• Table 6. Global Commercial CCUS Facilities — Under Development/Construction
• Table 7. Cost Reduction Using Proven and Emerging Technologies.
• Table 8. Key market barriers for CCUS.
• Table 9. Key compliance carbon pricing initiatives around the world.
• Table 10. CCUS business models: full chain, part chain, and hubs and clusters.
• Table 11. CCUS capture capacity forecast by CO₂ endpoint, Mtpa of CO₂, to 2047.
• Table 12. Capture capacity by region to 2047, Mtpa.
• Table 13. CCUS revenue potential ($bn)
• Table 14. Capacity by capture type (Mtpa)
• Table 15. Point-source CCUS capture capacity forecast by CO₂ source sector, Mtpa of CO₂, to 2046.
• Table 16. CCUS Cost Projections 2025-2047.
• Table 17. CO2 utilization and removal pathways
• Table 18. Approaches for capturing carbon dioxide (CO2) from point sources.
• Table 19. CO2 capture technologies.
• Table 20. Advantages and challenges of carbon capture technologies.
• Table 21. Overview of commercial materials and processes utilized in carbon capture.
• Table 22. Methods of CO2 transport.
• Table 23. Comparison of CO2 Transportation Methods.
• Table 24. Estimated capital costs for commercial-scale carbon capture.
• Table 25. Estimated costs of capture of one metric ton of carbon dioxide (Co2) by sector.
• Table 26. Cost of CO2 transported at different flowrates
• Table 27. Key Milestones in Carbon Market Development
• Table 28.Carbon Credit Prices by Market.
• Table 29. Carbon Credit Project Types.
• Table 30. Life Cycle Assessment of CCUS Technologies
• Table 31. Environmental Impact Assessment for CCUS Technologies.
• Table 32. Comparison of CO₂ capture technologies.
• Table 33. Typical conditions and performance for different capture technologies.
• Table 34. Conditions and Performance for Capture Technologies
• Table 35. Carbon Capture Technology Providers for Existing Large-Scale Projects.
• Table 36. Capture Percentages by technology.
• Table 37. Metrics for CO2 Capture Agents.
• Table 38. Energy consumption by technology.
• Table 39. Technology Readiness of Carbon capture Technologies.
• Table 40. Global CCUS Facilities Pipeline
• Table 41. PSCC technologies.
• Table 42. Point source examples.
• Table 43. Comparison of point-source CO₂ capture systems
• Table 44. Global point source CO2 capture capacities
• Table 45. Blue hydrogen projects.
• Table 46. Commercial CO₂ capture systems for blue H2.
• Table 47. Market players in blue hydrogen.
• Table 48. CCUS Projects in the Cement Sector.
• Table 49. Carbon capture technologies in the cement sector.
• Table 50. Cost and technological status of carbon capture in the cement sector.
• Table 51. Assessment of carbon capture materials
• Table 52. Chemical solvents used in post-combustion.
• Table 53. Comparison of key chemical solvent-based systems.
• Table 54. Chemical absorption solvents used in current operational CCUS point-source projects.
• Table 55.Amine Solvent Carbon Capture Technology Providers for Post-Combustion Capture
• Table 56.Comparison of key physical absorption solvents.
• Table 57.Physical solvents used in current operational CCUS point-source projects.
• Table 58. Emerging solvents for carbon capture
• Table 59. Emerging Solvents for Carbon Capture.
• Table 60. Oxygen separation technologies for oxy-fuel combustion.
• Table 61. Large-scale oxyfuel CCUS cement projects.
• Table 62. Commercially available physical solvents for pre-combustion carbon capture.
• Table 63. Main capture processes and their separation technologies.
• Table 64. Absorption methods for CO2 capture overview.
• Table 65. Commercially available physical solvents used in CO2 absorption.
• Table 66. Adsorption methods for CO2 capture overview.
• Table 67. Solid sorbents explored for carbon capture.
• Table 68. Carbon-based adsorbents for CO₂ capture.
• Table 69. Polymer-based adsorbents.
• Table 70. Solid sorbents for post-combustion CO₂ capture.
• Table 71. Emerging Solid Sorbent Systems.
• Table 72. Membrane-based methods for CO2 capture overview.
• Table 73. Comparison of membrane materials for CCUS
• Table 74. Commercial status of membranes in carbon capture
• Table 75. Membranes for pre-combustion capture.
• Table 76. Status of cryogenic CO₂ capture technologies.
• Table 77. Cryogenic Direct Air Capture Companies
• Table 78. Benefits and drawbacks of microalgae carbon capture.
• Table 79. Comparison of main separation technologies.
• Table 80. Technology readiness level (TRL) of gas separation technologies
• Table 81. Opportunities and Barriers by sector.
• Table 82. DAC technologies.
• Table 83. Advantages and disadvantages of DAC.
• Table 84. Advantages of DAC as a CO2 removal strategy.
• Table 85. Potential for DAC removal versus other carbon removal methods.
• Table 86. Companies developing airflow equipment integration with DAC.
• Table 87. Companies developing Passive Direct Air Capture (PDAC) technologies.
• Table 88. Companies developing regeneration methods for DAC technologies.
• Table 89. DAC companies and technologies.
• Table 90. Global capacity of direct air capture facilities.
• Table 91. DAC technology developers and production (2026)
• Table 92. DAC projects in development.
• Table 93. DACCS Carbon Removal Capacity Forecast — Base Case (Mtpa CO₂), 2024–2047
• Table 94. DACCS Carbon Removal Capacity Forecast — Optimistic Case (Mtpa CO₂), 2030–2047
• Table 95. Costs summary for DAC.
• Table 96. Typical cost contributions of the main components of a DACCS system.
• Table 97. Cost estimates of DAC.
• Table 98. Challenges for DAC technology.
• Table 99. DAC companies and technologies.
• Table 100. Example CO2 utilization pathways.
• Table 101. Markets for Direct Air Capture and Storage (DACCS).
• Table 116. AI Applications in Carbon Capture.
• Table 117. Renewable Energy Integration in Carbon Capture.
• Table 118. Mobile Carbon Capture Applications.
• Table 119. Carbon Capture Retrofitting.
• Table 124.Market Drivers for Carbon Dioxide Removal (CDR).
• Table 125. CDR versus CCUS
• Table 126. Status and Potential of CDR Technologies.
• Table 127. Main CDR methods.
• Table 128. Novel CDR Methods
• Table 129.Carbon Dioxide Removal Technology Benchmarking
• Table 130. CDR Value Chain.
• Table 131. Engineered Carbon Dioxide Removal Value Chain
• Table 132. Carbon pricing and carbon markets
• Table 133. Carbon Removal vs Emission Reduction Offsets.
• Table 134. Carbon Crediting Programs.
• Table 135. Channels for Purchasing Voluntary Carbon Credits
• Table 136. Voluntary Carbon Credits Trading Platforms and Exchanges.
• Table 137. Voluntary Carbon Credits Key Market Players and Projects.
• Table 138. Nature-Based Solutions Market Dynamics.
• Table 139. Voluntary Carbon Credits Pricing by Category and Project Type.
• Table 140. Price Range Analysis by Project Quality and Type:
• Table 141. Compliance Carbon Credits Key Market Players and Projects.
• Table 142. Comparison of Voluntary and Compliance Carbon Credits.
• Table 143. Durable Carbon Removal Buyers.
• Table 144. Prices of CDR Credits.
• Table 145. Major Corporate Carbon Credit Commitments.
• Table 146. Key Carbon Market Regulations and Support Mechanisms.
• Table 147. Carbon credit prices by company and technology.
• Table 148. Carbon Credit Exchanges and Trading Platforms.
• Table 149. OTC Carbon Market Characteristics.
• Table 150. Challenges and Risks.
• Table 151. TRL of Biomass Conversion Processes and Products by Feedstock.
• Table 152. BiCRS feedstocks.
• Table 153. BiCRS conversion pathways.
• Table 154. BiCRS Technological Challenges.
• Table 155. CO₂ capture technologies for BECCS.
• Table 156. Existing and planned capacity for sequestration of biogenic carbon.
• Table 157. Existing facilities with capture and/or geologic sequestration of biogenic CO2.
• Table 158. Challenges of BECCS
• Table 159. Ex Situ Mineralization CDR Methods.
• Table 160. Source Materials for Ex Situ Mineralization.
• Table 161. Companies in CO₂-derived Concrete.
• Table 162. Enhanced Weathering Applications.
• Table 163. Enhanced Weathering Materials and Processes.
• Table 164. Enhanced Weathering Companies
• Table 165. Trends and Opportunities in Enhanced Weathering.
• Table 166. Challenges and Risks in Enhanced Weathering.
• Table 167. Cost analysis of enhanced weathering.
• Table 168. Nature-based CDR approaches.
• Table 169. Comparison of A/R and BECCS.
• Table 170. Forest Carbon Removal Projects.
• Table 171. Companies in Robotics in A/R.
• Table 172. Trends and Opportunities in Afforestation/Reforestation.
• Table 173.Challenges and Risks in Afforestation/Reforestation.
• Table 174. Soil carbon sequestration practices.
• Table 175. Soil sampling and analysis methods.
• Table 176. Remote sensing and modeling techniques.
• Table 177. Carbon credit protocols and standards.
• Table 178. Trends and opportunities in soil carbon sequestration (SCS).
• Table 179. Key aspects of soil carbon credits.
• Table 180. Challenges and Risks in SCS.
• Table 181. Summary of key properties of biochar.
• Table 182. Biochar physicochemical and morphological properties
• Table 183. Biochar feedstocks-source, carbon content, and characteristics.
• Table 184. Biochar production technologies, description, advantages and disadvantages.
• Table 185. Comparison of slow and fast pyrolysis for biomass.
• Table 186. Comparison of thermochemical processes for biochar production.
• Table 187. Biochar production equipment manufacturers.
• Table 188. Competitive materials and technologies that can also earn carbon credits.
• Table 189. Bio-oil-based CDR pros and cons.
• Table 190. Ocean-based CDR methods.
• Table 191. Technology Readiness Level (TRL) Chart for Ocean-based CDR.
• Table 192. Benchmarking of Ocean-based CDR Methods.
• Table 193. Ocean-based CDR: Biotic Methods.
• Table 194. Market Players in Ocean-based CDR.
• Table 195. Carbon utilization revenue forecast by product (US$).
• Table 196. Comparison of Low Carbon CO2 vs Incumbent Low Carbon Technologies.
• Table 197. Carbon utilization business models.
• Table 198. CO2 utilization and removal pathways.
• Table 199. Market challenges for CO2 utilization.
• Table 200. Example CO2 utilization pathways.
• Table 201. CO2 derived products via Thermochemical conversion-applications, advantages and disadvantages.
• Table 202. CO2 derived products via electrochemical conversion-applications, advantages and disadvantages.
• Table 203. CO2 derived products via biological conversion-applications, advantages and disadvantages.
• Table 204. Companies developing and producing CO2-based polymers.
• Table 205. Companies developing mineral carbonation technologies.
• Table 206. Comparison of emerging CO₂ utilization applications.
• Table 207. Main routes to CO₂-fuels.
• Table 208. Market overview for CO2 derived fuels.
• Table 209. Main routes to CO₂ -fuels
• Table 210.Comparison of e-fuels to fossil and biofuels.
• Table 211. Existing and future CO₂-derived synfuels (kerosene, diesel, and gasoline) projects.. :
• Table 212. CO2-Derived Methane Projects.
• Table 213. Power-to-Methane projects worldwide.
• Table 214. Power-to-Methane projects.
• Table 215. Microalgae products and prices.
• Table 216. Syngas Production Options for E-fuels.
• Table 217. Main Solar-Driven CO2 Conversion Approaches.
• Table 218. Companies in CO2-derived fuel products.
• Table 219. CO₂ utilization forecast for fuels by fuel type (million tonnes CO₂/year), 2027–2047
• Table 220. Global revenue forecast for CO₂-derived fuels by fuel type (million US$), 2027–2047
• Table 221. Commodity chemicals and fuels manufactured from CO2.
• Table 222.CO₂-derived Chemicals: Thermochemical Pathways.
• Table 223. Thermochemical Methods: CO₂-derived Methanol.
• Table 224. CO₂-derived Methanol Projects.
• Table 225. CO₂-Derived Methanol: Economic and Market Analysis (Next 5-10 Years).
• Table 226. Electrochemical CO₂ Reduction Technologies.
• Table 227. Comparison of RWGS and SOEC Co-electrolysis Routes.
• Table 228. Cost Comparison of CO₂ Electrochemical Technologies.
• Table 229. Technology Readiness Level (TRL): CO₂U Chemicals.
• Table 230. Companies in CO2-derived chemicals products.
• Table 231. CO₂ utilization forecast in chemicals by end-use (million tonnes CO₂/year), 2027–2047
• Table 232. Global revenue forecast for CO₂-derived chemicals by end-use (million US$), 2027–2047
• Table 233. Carbon sequestered per tonne of output, by route
• Table 234. CCU-derived vs conventional pricing ($/kg unless noted)
• Table 235. Total CCU-derived carbon materials market revenue
• Table 236. Market revenue by output material, base case ($M)
• Table 237. Carbon capture technologies and projects in the cement sector
• Table 238. Prefabricated versus ready-mixed concrete markets .
• Table 239. CO₂ utilization in concrete curing or mixing.
• Table 240. CO₂ utilization business models in building materials.
• Table 241. Companies in CO2 derived building materials.
• Table 242. Market challenges for CO2 utilization in construction materials.
• Table 243. CO₂ utilization forecast in building materials by end-use (million tonnes CO₂/year), 2027–2047
• Table 244. Global revenue forecast for CO₂-derived building materials by product (million US$), 2027–2047
• Table 245. Enrichment Technology.
• Table 246. Food and Feed Production from CO₂.
• Table 247. Companies in CO2 Utilization in Biological Yield-Boosting.
• Table 248. CO₂ utilization forecast in biological yield-boosting by end-use (million tonnes CO₂/year), 2027–2047
• Table 249. Global revenue forecast for CO₂ use in biological yield-boosting by end-use (million US$), 2027–2047
• Table 250. Applications of CCS in oil and gas production.
• Table 251. CO₂ utilization forecast in enhanced oil recovery (million tonnes CO₂/year), 2027–2047
• Table 252. Global revenue forecast for CO₂-enhanced oil recovery (billion US$), 2025-2046.
• Table 253. CO2 EOR/Storage Challenges.
• Table 254. Digital and IoT Applications in Carbon Utilization.
• Table 255. Blockchain Applications in Carbon Trading.
• Table 256. Carbon Utilization Strategies in Data Centers.
• Table 257. CCU Integration in Smart City Infrastructure.
• Table 258. CO2-derived Materials in 3D Printing.
• Table 259. CO2 Applications in Energy Storage.
• Table 260. CO2 Applications in Electronics Manufacturing.
• Table 261. Storage and utilization of CO2.
• Table 262. Mechanisms of subsurface CO₂ trapping.
• Table 263. Global depleted reservoir storage projects.
• Table 264. Global CO₂ ECBM (Enhanced Coal-Bed Methane) Storage Projects (2026)
• Table 265. CO2 EOR/storage projects.
• Table 266. Global storage sites-saline aquifer projects.
• Table 267. Global storage capacity estimates, by region.
• Table 268. MRV Technologies and Costs in CO₂ Storage.
• Table 269. Carbon storage challenges.
• Table 270. Status of CO₂ Storage Projects.
• Table 271. Types of CO₂ -EOR designs.
• Table 272. CO₂ capture with CO₂ -EOR facilities.
• Table 273. CO₂ -EOR companies.
• Table 274. Carbon Capture Storage Monitoring Technologies.
• Table 275. Storage Site Selection Criteria.
• Table 276. Phases of CO₂ for transportation.
• Table 277. CO₂ transportation methods and conditions.
• Table 278. Status of CO₂ transportation methods in CCS projects.
• Table 279. CO₂ pipelines Technical challenges.
• Table 280. Cost comparison of CO₂ transportation methods
• Table 281. Components of Smart Pipeline Networks.
• Table 282. Components of CO2 Transportation Hubs.
• Table 283. CO2 Pipeline Safety Systems and Monitoring.
• Table 284. Emerging CO2 Transportation Technologies.
• Table 285. CO₂ transport operators.
• Table 286. List of abbreviations.
• Table 287. Technology Readiness Level (TRL) Examples.

List of Figures

• Figure 1. Carbon emissions by sector.
• Figure 2. Overview of CCUS market
• Figure 3. CCUS business model.
• Figure 4. Pathways for CO2 use.
• Figure 7. Carbon Capture, Utilization, & Storage (CCUS) Market Map.
• Figure 10. CCUS Value Chain.
• Figure 11. Schematic of CCUS process.
• Figure 12. Pathways for CO2 utilization and removal.
• Figure 13. A pre-combustion capture system.
• Figure 14. Carbon dioxide utilization and removal cycle.
• Figure 15. Various pathways for CO2 utilization.
• Figure 16. Example of underground carbon dioxide storage.
• Figure 17. Transport of CCS technologies.
• Figure 18. Railroad car for liquid CO₂ transport
• Figure 21. Cost estimates for long-distance CO2 transport.
• Figure 22. CO2 capture and separation technology.
• Figure 26. SMR process flow diagram of steam methane reforming with carbon capture and storage (SMR-CCS).
• Figure 27. Process flow diagram of autothermal reforming with a carbon capture and storage (ATR-CCS) plant.
• Figure 28. POX process flow diagram.
• Figure 29. Process flow diagram for a typical SE-SMR.
• Figure 30. Post-combustion carbon capture process.
• Figure 31. Post-combustion CO2 Capture in a Coal-Fired Power Plant.
• Figure 32. Oxy-combustion carbon capture process.
• Figure 33. Process schematic of chemical looping.
• Figure 34. Liquid or supercritical CO2 carbon capture process.
• Figure 35. Pre-combustion carbon capture process.
• Figure 36. Amine-based absorption technology.
• Figure 37. Pressure swing absorption technology.
• Figure 38. Membrane separation technology.
• Figure 39. Liquid or supercritical CO2 (cryogenic) distillation.
• Figure 40. Cryocap™ process.
• Figure 41. Calix advanced calcination reactor.
• Figure 42. LEILAC process.
• Figure 43. Fuel Cell CO2 Capture diagram.
• Figure 44. Microalgal carbon capture.
• Figure 45. Cost of carbon capture.
• Figure 46. CO2 capture capacity to 2030, MtCO2.
• Figure 47. Capacity of large-scale CO2 capture projects, current and planned vs. the Net Zero Scenario, 2020-2030.
• Figure 48. CO2 captured from air using liquid and solid sorbent DAC plants, storage, and reuse.
• Figure 50. DAC technologies.
• Figure 51. Schematic of Climeworks DAC system.
• Figure 52. Climeworks’ first commercial direct air capture (DAC) plant, based in Hinwil, Switzerland.
• Figure 53. Flow diagram for solid sorbent DAC.
• Figure 54. Direct air capture based on high temperature liquid sorbent by Carbon Engineering.
• Figure 55. Schematic of costs of DAC technologies.
• Figure 56. DAC cost breakdown and comparison.
• Figure 57. Operating costs of generic liquid and solid-based DAC systems.
• Figure 58. Co2 utilization pathways and products.
• Figure 74. Process Flow of Carbon Trading: Total Carbon Credits (CCs), amounting to CCB (MtCO2e) = (c) – EB, are issued to firm with CHG emissions below the allowance. These credits can be subsequently sold to firm with emissions exceeding the allowance. In the representation, the latter firm must purchase total credits equivalent to CCA (MtCO2e) = EA – (c).
• Figure 75. BiCRS Value Chain.
• Figure 76. Bioenergy with carbon capture and storage (BECCS) process.
• Figure 77. Capture of carbon dioxide from the atmosphere using bricks of calcium hydroxide.
• Figure 78. Carbon capture using mineral carbonation.
• Figure 79. SWOT analysis: enhanced weathering.
• Figure 80. SWOT analysis: afforestation/reforestation.
• Figure 81. SWOT analysis: SCS.
• Figure 82. Schematic of biochar production.
• Figure 83. Biochars from different sources, and by pyrolyzation at different temperatures.
• Figure 84. Compressed biochar.
• Figure 85. Biochar production diagram.
• Figure 86. Pyrolysis process and by-products in agriculture.
• Figure 87. SWOT analysis: Biochar for CDR.
• Figure 88. SWOT analysis: Ocean-based CDR.
• Figure 89. CO2 non-conversion and conversion technology, advantages and disadvantages.
• Figure 90. Applications for CO2.
• Figure 91. Cost to capture one metric ton of carbon, by sector.
• Figure 92. Life cycle of CO2-derived products and services.
• Figure 93. Co2 utilization pathways and products.
• Figure 94. Plasma technology configurations and their advantages and disadvantages for CO2 conversion.
• Figure 95. Electrochemical CO₂ reduction products.
• Figure 96. LanzaTech gas-fermentation process.
• Figure 97. Schematic of biological CO2 conversion into e-fuels.
• Figure 98. Econic catalyst systems.
• Figure 99. Mineral carbonation processes.
• Figure 100. Conversion route for CO2-derived fuels and chemical intermediates.
• Figure 101. Conversion pathways for CO2-derived methane, methanol and diesel.
• Figure 102. SWOT analysis: e-fuels.
• Figure 103. CO2 feedstock for the production of e-methanol.
• Figure 104. Schematic illustration of (a) biophotosynthetic, (b) photothermal, (c) microbial-photoelectrochemical, (d) photosynthetic and photocatalytic (PS/PC), (e) photoelectrochemical (PEC), and (f) photovoltaic plus electrochemical (PV+EC) approaches for CO2 c
• Figure 106. Conversion of CO2 into chemicals and fuels via different pathways.
• Figure 107. Conversion pathways for CO2-derived polymeric materials
• Figure 108. Conversion pathway for CO2-derived building materials.
• Figure 109. Schematic of CCUS in cement sector.
• Figure 110. Carbon8 Systems’ ACT process.
• Figure 111. CO2 utilization in the Carbon Cure process.
• Figure 112. Algal cultivation in the desert.
• Figure 113. Example pathways for products from cyanobacteria.
• Figure 114. Typical Flow Diagram for CO2 EOR.
• Figure 116. Carbon mineralization pathways.
• Figure 117. CO2 Storage Overview - Site Options
• Figure 118. CO2 injection into a saline formation while producing brine for beneficial use.
• Figure 119. Subsurface storage cost estimation.
• Figure 120. Air Products production process.
• Figure 121. ALGIECEL PhotoBioReactor.
• Figure 122. Schematic of carbon capture solar project.
• Figure 123. Aspiring Materials method.
• Figure 124. Aymium’s Biocarbon production.
• Figure 125. Capchar prototype pyrolysis kiln.
• Figure 126. Carbonminer technology.
• Figure 127. Carbon Blade system.
• Figure 128. CarbonCure Technology.
• Figure 129. Direct Air Capture Process.
• Figure 130. CRI process.
• Figure 131. PCCSD Project in China.
• Figure 132. Orca facility.
• Figure 133. Process flow scheme of Compact Carbon Capture Plant.
• Figure 134. Colyser process.
• Figure 135. ECFORM electrolysis reactor schematic.
• Figure 136. Dioxycle modular electrolyzer.
• Figure 137. Fuel Cell Carbon Capture.
• Figure 138. Topsoe's SynCORTM autothermal reforming technology.
• Figure 139. Heirloom DAC facilities.
• Figure 140. Carbon Capture balloon.
• Figure 141. Holy Grail DAC system.
• Figure 142. INERATEC unit.
• Figure 143. Infinitree swing method.
• Figure 144. Audi/Krajete unit.
• Figure 145. Made of Air's HexChar panels.
• Figure 146. Mosaic Materials MOFs.
• Figure 147. Neustark modular plant.
• Figure 148. OCOchem’s Carbon Flux Electrolyzer.
• Figure 149. ZerCaL™ process.
• Figure 150. CCS project at Arthit offshore gas field.
• Figure 151. RepAir technology.
• Figure 152. Aker (SLB Capturi) carbon capture system.
• Figure 153. Soletair Power unit.
• Figure 154. Sunfire process for Blue Crude production.
• Figure 155. CALF-20 has been integrated into a rotating CO2 capture machine (left), which operates inside a CO2 plant module (right).
• Figure 156. Takavator.
• Figure 157. O12 Reactor.
• Figure 158. Sunglasses with lenses made from CO2-derived materials.
• Figure 159. CO2 made car part.
• Figure 160. Molecular sieving membrane.