Emerging TechnologiesSustainability Tech

Carbon Capture

Overview

Direct Answer

Carbon capture encompasses technologies that extract carbon dioxide from industrial exhaust streams, ambient air, or point sources, followed by compression, transport, and either permanent geological storage or utilisation in products and processes. This approach addresses both direct emissions reduction and atmospheric carbon removal.

How It Works

Point-source capture uses solvents, sorbents, or membranes to separate CO₂ from flue gases at industrial facilities or power plants. Direct air capture (DAC) employs similar chemistry to extract CO₂ directly from ambient air using large contactors or solid sorbents. Captured gas is then compressed, transported via pipeline or truck, and either injected into geological formations for permanent sequestration or converted into chemicals, beverages, building materials, or synthetic fuels.

Why It Matters

Organisations face regulatory pressure to reduce Scope 1 and 2 emissions whilst meeting net-zero commitments. Point-source capture offers immediate emissions reductions at high concentration, reducing abatement costs. DAC provides a pathway for removing legacy atmospheric carbon, though economics remain less favourable than point-source approaches.

Common Applications

Industrial applications include cement and steel production, natural gas processing, and chemical manufacturing. Utilisation pathways span enhanced oil recovery, beverage carbonation, and synthesis of building materials. Geological storage occurs in saline aquifers and depleted oil and gas reservoirs.

Key Considerations

Energy intensity significantly affects net climate benefit; capture powered by renewable sources is substantially more effective than fossil-fuel-powered systems. Permanence of storage, regulatory frameworks, and scalability economics remain critical constraints for widespread deployment.

Cited Across coldai.org2 pages mention Carbon Capture

Industry pages, services, technologies, capabilities, case studies and insights on coldai.org that reference Carbon Capture — providing applied context for how the concept is used in client engagements.

Industry
Energy and Materials
Driving the energy transition with AI-powered resource optimization, carbon capture monitoring, battery storage analytics, and materials discovery platforms. We deploy digital twin
Insight
Battery Storage Operators Are Replacing Energy Traders With Autonomous Bidding Agents — here’s why
Grid-scale storage facilities running agentic systems are capturing arbitrage spreads human traders systematically miss, forcing a rethink of energy desk economics.

More in Emerging Technologies

Swarm Intelligence

Web3 & Decentralisation

The collective behaviour of decentralised, self-organised systems where simple agents following local rules produce emergent intelligent behaviour at the group level.

Confidential Computing

Next-Gen Computing

Technology that protects data during processing by performing computations in hardware-based trusted execution environments.

Multimodal AI

AI Frontiers

AI systems capable of processing and generating multiple types of data including text, images, audio, and video.

Hydrogen Economy

Bio & Materials

An economic system where hydrogen serves as the primary energy carrier for power generation and transportation.

AI Companion

Next-Gen Computing

A persistent AI entity that forms an ongoing relationship with a user, accumulating shared history, adapting to preferences, and providing personalised assistance over time.

AI Copilot

AI Frontiers

An AI assistant embedded in software applications that helps users complete tasks through suggestions and automation.

DNA Data Storage

Next-Gen Computing

Using synthetic DNA molecules to encode and store digital data with extreme density and longevity.

3D Printing

Next-Gen Computing

Additive manufacturing technology that creates three-dimensional objects by depositing material layer by layer.