· 3 min read
The cost problem in traditional carbon capture
Carbon capture has long been hindered by one major obstacle: cost. Large-scale Direct Air Capture (DAC) facilities, such as Climeworks’ Orca plant, require massive infrastructure and consume over 2,500 kWh per metric ton of CO₂ captured. This results in operational costs exceeding $600 per metric ton, making scalability a challenge and widespread adoption nearly impossible.
For industries looking to decarbonize, these costs are unsustainable. Traditional carbon capture systems rely on static designs, reactive maintenance, and high energy input - factors that drive up expenses and limit deployment options. Without improvements in efficiency, these models struggle to compete as commercially viable solutions.
AI-driven optimization: a game changer for carbon capture
Enter AI-driven carbon capture. By integrating artificial intelligence into our compact capture systems, Capture et Commercialisation du Carbone mercialization (CC&C) is transforming CO₂ removal into an efficient, scalable, and financially viable process.
Our AI platform continuously refines system operations, adjusting parameters dynamically based on real-time data. This reduces energy waste, optimizes adsorption cycles, and prevents costly downtime through predictive maintenance. The result? A dramatic drop in operational costs, with CC&C’s technology operating at under 100 kWh per metric ton, making carbon capture affordable at scale.
Bench-scale testing: ai's real-world impact
Early tests have shown the power of AI-driven optimization in action:
• Bench-scale AI optimization: AI-based energy tuning reduced power consumption from 2,000 kWh/ton to 1,800 kWh/ton, while increasing capture efficiency by 8%
• Predictive maintenance: In simulated lab testing, AI identified early signs of degradation, scheduling maintenance three weeks before system failure - cutting unexpected downtime by 15% and lowering costs by 22%
• AI-driven network coordination: In industrial scenarios, AI dynamically adjusted capture workloads across multiple units, reducing energy use by 18% while improving overall efficiency by 15%
The business case: making carbon capture profitable
By reducing inefficiencies and enhancing scalability, AI unlocks new revenue opportunities for carbon capture. The financial benefits extend beyond simple cost reduction:
• Operational stability: AI ensures predictable energy use, lower maintenance costs, and maximum uptime
• Scalability: AI-driven automation allows for seamless deployment across multiple sites, optimizing each location’s carbon capture potential
• Profitability: By integrating with Enhanced Oil Recovery (EOR) and industrial CO₂ utilization, AI-driven systems maximize the economic return on captured CO₂, making carbon capture a revenue-generating asset rather than an expense
Looking ahead: ai as the future of carbon capture
As industries seek cost-effective pathways to net-zero, AI-driven carbon capture is emerging as the solution of choice. The ability to optimize in real-time, adapt to environmental shifts, and proactively maintain systems makes AI not just a tool, but a necessity for scalable carbon management.
This article is also available on LinkedIn. illuminem Voices is a democratic space presenting the thoughts and opinions of leading Sustainability & Energy writers, their opinions do not necessarily represent those of illuminem.
