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Carbon Capture and Storage
Coverage from Drilled, ProPublica, and others
Carbon capture and storage includes capturing carbon dioxide at industrial facilities, transporting it for use or long-term geological storage, and removing it directly from the air.
These approaches are considered for residual emissions from sectors such as cement, steel, chemicals, and refining, while direct air capture and mineralization target carbon already in the atmosphere. Projects such as Norway’s Sleipner and Canada’s Quest illustrate geological storage, and industrial hubs can connect capture sites to shared infrastructure. Their climate value depends on costs, energy use, reliable monitoring and verification, policy and financing, and how they complement measures such as efficiency, electrification, and renewable power.
A specific European project has entered the picture: Yara plans capture at its Sluiskil fertilizer plant, with CO₂ intended for storage in Norway and support from the European Commission. The broader framing remains consistent with CCS as a complement to direct emissions cuts.
The current version largely reinforces the existing account: shared CO2 networks remain central, while cost, limited capacity, and the contested climate role constrain expectations.
The material adds a limited research angle: explainable AI is being explored for subsurface CCUS modeling and monitoring, but real-world validation remains limited. The broader account of costs, scale, and CCUS’s contested industrial role largely reinforces the previous version.
The update adds a concrete European cross-border transport proposal linking Yara’s Dutch plant to offshore storage in Norway, while quantifying how limited operating capacity remains. It also makes pipeline safety and long-term liability more explicit in the oversight debate.
Carbon capture and storage is being advanced for industrial emissions and, increasingly, proposed power projects, while developers and governments work through high costs, storage access, transport infrastructure, and financing. The technology is often presented as an option for emissions that are difficult to eliminate in sectors such as cement, steel, and chemicals, but current deployment remains small relative to climate-pathway needs. Its contribution depends on verified permanent storage and complementing—not replacing—efficiency, electrification, and clean energy.