Global Leading Market Research Publisher QYResearch announces the release of its latest report “Carbon Capture and Storage Technology – Global Market Share and Ranking, Overall Sales and Demand Forecast 2026-2032”. Based on current situation and impact historical analysis (2021-2025) and forecast calculations (2026-2032), this report provides a comprehensive analysis of the global Carbon Capture and Storage Technology market, including market size, share, demand, industry development status, and forecasts for the next few years.
For cement plants, steel mills, chemical facilities, and power generators, the core challenge is reducing process CO₂ emissions where electrification and renewables cannot reach. Unlike power sector (which can shift to solar/wind/nuclear), cement kilns emit CO₂ from limestone calcination (60% of emissions), unavoidable without CCS. Carbon Capture and Storage (CCS) captures CO₂ from industrial sources or directly from air, then permanently stores it underground. This report provides a data-driven solution, with 194 total projects globally (30 operational, 11 under construction, 153 in development as of 2022). The critical enablers are enhanced 45Q tax credits (US$85/ton) and EU industrial carbon border adjustments, transforming industrial decarbonization via point-source emissions capture.
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1. Market Overview & Policy Momentum
CCS captures CO₂ emissions from industrial/energy sources, transports via pipeline/ship, and stores in depleted oil/gas reservoirs or saline aquifers. Goal: reduce greenhouse gas emissions (particularly CO₂) by capturing/storing before atmospheric entry. Considered critical technology for achieving deep decarbonization and meeting climate mitigation targets. Helps industries transition to lower-carbon operations while maintaining reliable energy supplies and supporting economic growth.
Project pipeline growth: In 2022, 61 new CCS facilities were added globally, bringing total to 30 operational, 11 under construction, and 153 in development. US has more CCS projects than any other country; Inflation Reduction Act (2022) driving further deployment. Europe (UK, Netherlands, Norway) developing CCS in regional industrial clusters where multiple emitters benefit economically from shared transportation/storage infrastructure.
Industry-exclusive observation (Q1 2026): Global CCS capacity under development reached 250Mt/year (2025) from 45Mt/year (2022). DAC (direct air capture) capacity under construction: 1.2Mt/year (Occidental’s Stratos 0.5Mt, Climeworks Mammoth 0.036Mt, others). 45Q credit (US85/tonstorage)sufficientforcement(capturecostUS85/tonstorage)sufficientforcement(capturecostUS40-80/ton) but not yet for power (US$80-150/ton) without additional revenue (EOR, 45Q plus low-carbon hydrogen premium).
2. Technology Segmentation
Carbon Capture and Storage (CCS) – largest share (65-70%):
Capture from point sources (cement, steel, chemicals, power). Post-combustion (amine scrubbing – most mature, deployable at 1Mt/year+ scale). Pre-combustion (gasification, shift reactor – hydrogen + CO₂). Oxyfuel (combustion in pure O₂ – flue gas mostly CO₂/H₂O). Capture cost: cement US40−70/ton,steelUS40−70/ton,steelUS50-80/ton, chemicals US25−50/ton(ammonia,hydrogenfromnaturalgas),powerUS25−50/ton(ammonia,hydrogenfromnaturalgas),powerUS80-150/ton (US natural gas combined cycle). User case: HeidelbergCement Brevik (Norway, 0.4Mt/year, operational 2025) – world’s first cement plant with full-scale CCS (post-combustion amine, captured CO₂ shipped to Northern Lights storage, total project cost €200M).
Carbon Capture and Utilization (CCU) – 25-30% share:
Captured CO₂ used for enhanced oil recovery (EOR – commercial, 70-80% of utilization currently), chemical production (methanol, urea, polymers, formic acid), building materials (concrete curing, aggregates), food/beverage (carbonation), synthetic fuels (e-methanol, e-kerosene, e-methane). User case: Carbon Recycling International (Iceland) George Olah plant (5M litres/year methanol from CO₂ + renewable hydrogen – 4,000 tons CO₂ captured annually).
3. Application Segmentation
Industrial Facilities (fastest growing, 55-60% of new projects, 18-20% CAGR):
Cement (8% global CO₂, 1,000+ large plants, 0.3-2Mt/year each), steel (7% global CO₂, integrated BF-BOF plants need CCS or hydrogen-DRI), chemicals (ammonia, ethylene, methanol, hydrogen plants), refineries. Hardest-to-abate sectors where CCS only viable decarbonization path. User case: Northern Lights (Norway, 1.5Mt/year operational 2025) – open-source CO₂ transport/storage service for European industrial emitters (cement, waste-to-energy, ammonia).
Power Plants (30-35% share, 8-10% CAGR):
Natural gas combined cycle (NGCC, 0.5-1.5Mt/year per 500MW plant) and coal (1-3Mt/year per 500MW). Economic challenges: reduces net plant output by 20-30%, increases LCOE by 50-100%. Requires policy support (45Q, carbon price >US$80-100/ton, or clean electricity standard with CCS credit). User case: Petra Nova (Texas, 1.6Mt/year, restarted 2024 after 2020 shutdown due to low oil prices) – post-combustion capture from coal plant, CO₂ used for EOR (West Ranch oil field).
Others (5-10%): Direct air capture (DAC) – Climeworks, Carbon Engineering, Global Thermostat. Not yet competitive (capture cost US500−1,000/ton,targetingUS500−1,000/ton,targetingUS200-300/ton by 2028).
4. Technical Challenges & Recent Solutions
**Challenge 1: High capture cost (US40−200/ton).∗∗Forcement/steel,CCSadds30−10040−200/ton).∗∗Forcement/steel,CCSadds30−10080-100/ton or 45Q US$85/ton).
Recent solution (2025-2026): Next-generation solvents (non-aqueous, lower regeneration energy from 3.5-4.0 GJ/t CO₂ to 2.2-2.8 GJ/t). Membrane and electrochemical separation avoiding thermal regeneration. Projected capture cost reductions: 30% by 2030.
Challenge 2: Storage permanence and monitoring. Leakage risk (0.1-1% annually over 1,000 years) undermines climate benefit. Public acceptance for onshore storage (NIMBY – not in my backyard).
Recent solution: Advanced seismic monitoring (4D active + passive microseismic) and satellite InSAR (deformation detection). EU storage directive requiring 100-year liability transfer to state after closure. Demonstrated 99.99% retention at Sleipner (Norway, 1Mt/year since 1996, 25+ years). Global CO₂ storage resource: >10,000 Gt (geological capacity – depleted oil/gas reservoirs, saline aquifers, basalt formations).
Challenge 3: DAC energy intensity. Climeworks technology requires heat (200-300°C) and electricity – currently 1.5-2.5 GJ/t CO₂ (6-10× point-source CCS energy penalty).
Recent solution (March 2026): Low-temperature DAC (ambient temperature chemisorption – AirCapture, Avnos) achieving 1.0-1.5 GJ/t. Projected US200−300/tonby2028(fromUS200−300/tonby2028(fromUS500-1,000/ton currently).
5. Competitive Landscape
Key Players: Mitsubishi Heavy Industries (capture technology licensing), Siemens Energy (compression, capture), Shell (industrial CCS projects, Quest Canada), Carbon Engineering (DAC, acquired by Occidental), Climeworks (DAC, Switzerland/Iceland), Occidental Petroleum/Oxy (DAC + EOR, Stratos project), Aker Solutions (CCS projects, Northern Lights), Carbon Clean Solutions (small-scale modular capture), Global Thermostat (DAC), C-Capture (UK solvent-based), Schlumberger (SLB, storage monitoring), Bechtel (EPC), ION Clean Energy (solvent), Chevron (Gorgon CCS Australia), Svante Technologies (solid sorbent), NET Power (Allam cycle – natural gas + oxycombustion, direct CO₂ working fluid, low-cost capture), LanzaTech (biological capture to ethanol).
Market structure: Fragmented with technology providers, engineering firms, oil majors, and startups. Increasing consolidation (Occidental acquiring Carbon Engineering; Schlumberger expanding storage). Project pipelines dominated by Europe (North Sea storage) and North America (US Gulf Coast 45Q).
6. Strategic Outlook
Key predictions 2026-2032:
- Global CCS capacity grows from 45Mt/year (2022) to 200-250Mt/year by 2030, 500-800Mt/year by 2035 (IEA Net-Zero scenario requires 1,000Mt+)
- DAC capacity reaches 5-10Mt/year by 2030 (from 0.01Mt in 2022)
- Industrial applications (cement, steel, chemicals) fastest growing (20-25% CAGR)
- Capture costs decline 30-40% through solvent/membrane innovation and learning-by-doing
- 45Q credit (US$85/ton storage) drives US projects; EU CBAM (carbon border adjustment mechanism, 2026 implementation) incentivizes CCS outside EU
- CO₂ pipeline and ship infrastructure expanding: Northern Lights open-access (1.5Mt/year, 2025), planned expansion to 5Mt+
CCS can help industries transition to lower-carbon operations while maintaining reliable energy supplies and supporting economic growth – critical for achieving deep decarbonization and meeting climate change mitigation targets.
7. Market Segmentation Summary
Segment by Technology:
- Carbon Capture and Storage (CCS) – 65-70% share, point-source capture + permanent storage
- Carbon Capture and Utilization (CCU) – 25-30% share, EOR, chemicals, fuels, materials
Segment by Application:
- Industrial Facilities (cement, steel, chemicals, refineries) – fastest growing, 55-60% of new projects
- Power Plants (natural gas, coal) – 30-35%
- Others (DAC, bioenergy with CCS) – 5-10%
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