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Carbon Capture Costs: FEED & pre-FEED Cost Reports

Carbon capture costs from pre-FEED and FEED studies across power, cement, steel, natural gas, hydrogen and other industrial sectors. Browse capital (capex) and operating (opex) cost estimates from publicly available engineering reports, drill down into cost buckets and line items, and compare up to three projects side-by-side.

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Comparing 2 reports — tab selection applies to every column.

Calpine / Deer Park Energy Center

Natural GasFEED· Calpine· 2023-05-03Project page ↗Cost report ↗
CO₂ captured
500,000t/yr
Capture efficiency
95.0%
Utilization
85.0%
Parasitic load
30.4MW
CO₂ concentration
5.2%vol%
Facility scope
EngineeringSargent & Lundy
Point source approachPost-Combustion Capture
CO₂ concentration5.2% vol%
Flue gas pressure15 psia
Compressor nameplate
Compression stages5
Compression inlet
Compression discharge2,215 psia
Description
Calpine Texas CCUS Holdings LLC, with Electricore Inc., is conducting a FEED study for a modular post-combustion CO₂ capture system at the Deer Park Energy Center NGCC plant in Texas. Using Shell’s commercial-scale amine technology, the system will capture 95% of emissions—about 5 MTPA—while maintaining low energy use and fast reaction rates. The study will include business case, techno-economic, life cycle, environmental, and public policy analyses, including environmental justice and job creation impacts.

Cleveland Cliffs / Burns Harbor

Iron and Steelpre-FEED· Dastur International· 2023-03-01Project page ↗Cost report ↗
CO₂ captured
2,800,000t/yr
Capture efficiency
95.0%
Utilization
Parasitic load
79MW
CO₂ concentration
21.9%vol%
Facility scope
EngineeringDastur International
Point source approachPost-Combustion Capture
CO₂ concentration21.9% vol%
Flue gas pressure17 psia
Compressor nameplate
Compression stages6
Compression inlet
Compression discharge2,215 psia
Description
Dastur International Inc., with Cleveland-Cliffs Inc., is designing a carbon capture system for the 5 mtpa integrated steel plant in Burns Harbor, Indiana, to capture 50–70% of CO₂ emissions from blast furnace gas. The system will combine a gas flow distribution network, a specialized conditioning process, and ION Clean Energy’s solvent-based capture technology with 90–98% efficiency, with water-gas shift reactors enabling higher capture rates. Dastur will lead overall plant integration and engineering, while ION designs the capture island and Dastur Energy optimizes design and energy performance.