UK Direct Air Capture (DAC) Market Size, Share & Forecast 2026–2034

ID: MR-868 | Published: April 2026
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Report Highlights

  • Country: United Kingdom
  • Market: Direct Air Capture (DAC) Market
  • Market Size 2024: USD 0.16 billion
  • Market Size 2032: USD 3.4 billion
  • CAGR: 49.5%
  • Market Definition: Engineered direct air capture installations capturing CO₂ from atmospheric air using solid sorbents or liquid solvent systems, combined with geological storage or utilisation, operated within the United Kingdom or supported by UK government funding and policy frameworks.
  • Leading Companies: Storegga, Carbon Engineering, Mission Zero Technologies, Origen Carbon Solutions, Deep Sky
  • Base Year: 2025
  • Forecast Period: 2026–2032
Market Growth Chart
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Market Overview

The United Kingdom is Europe's most policy-active DAC market outside Norway, with the government's Net Zero strategy explicitly designating direct air capture as a priority technology in the Carbon Capture, Utilisation and Storage (CCUS) industrial cluster programme that anchors UK decarbonisation strategy. The UK's CCS programme — centred on the East Coast Cluster (Teesside and Humber) and the HyNet North West cluster — provides geological storage infrastructure (depleted North Sea gas fields and saline aquifers accessible via existing pipeline networks) that is among the best-characterised CO₂ storage resource in Europe and globally, giving UK DAC projects access to permanent geological storage without the site development costs that North American DAC projects must bear for greenfield injection wells.

Mission Zero Technologies, a UK-based DAC startup using electrochemical CO₂ separation (rather than thermal sorbent regeneration), has raised USD 80 million in Series A funding and demonstrated its first pilot unit at 1 tonne CO₂/day scale in 2024 — making it the most advanced UK-based DAC technology developer. Origen Carbon Solutions is commercialising lime-based DAC through its FlueLeaf technology, which uses industrial kiln waste heat to drive carbonate decomposition, potentially addressing one of DAC's highest operational costs. The UK government's Contracts for Difference scheme for carbon removals — analogous to Germany's Klimaschutzverträge but applied to carbon removal rather than green steel — provides 15-year price support for DAC removal credits that de-risks the investment case for UK DAC project development.

Key Growth Drivers

UK government funding is the primary near-term driver — GBP 20 billion in carbon capture and storage investment support was announced in 2024 covering both point-source industrial CCS and DAC, with the DESNZ (Department for Energy Security and Net Zero) DAC Hub programme providing capital grants for first-of-kind commercial DAC plants. The voluntary carbon market demand from UK-headquartered technology companies — Arm, Sage, Rolls-Royce, and others with ambitious net-zero commitments and sustainability reporting obligations under UK mandatory climate reporting — provides commercial off-take for early UK DAC projects at pricing that supports commercial plant economics. North Sea geological storage access — via the Acorn project in Scotland and the East Coast Cluster pipeline network — is a unique competitive advantage that reduces per-tonne storage cost for UK DAC projects relative to DAC operations in markets without established CO₂ transport and storage infrastructure.

Market Challenges

The scale of UK government DAC funding is smaller than US 45Q equivalents — the UK's DAC Hub programme provides capital grants but not the per-tonne operational support that US 45Q delivers across the operational life of DAC plants, meaning UK DAC projects carry higher operating cost risk than US equivalents. The UK voluntary carbon market's demand is real but limited to a buyer pool that is smaller than the US technology sector, meaning early UK DAC plants must export credits to EU and international buyers or secure government long-term purchase agreements to fill capacity. UK electricity costs — among the highest in Europe for industrial users, driven by grid levies and capacity market charges — add to DAC operational expenses in a process that is highly electricity-intensive, creating an economic headwind versus Iceland (geothermal), US Southwest (cheap renewables), and Nordic locations with subsidised industrial electricity rates.

Emerging Opportunities

The UK's offshore wind-to-DAC integration is a significant near-term commercial opportunity — coupling offshore wind generation directly with solid sorbent DAC units co-located at wind farm substations allows stranded or curtailed renewable electricity to be used for DAC operations at near-zero marginal energy cost during periods of grid oversupply. Curtailment payments to UK offshore wind already exceed GBP 1 billion annually as grid balancing costs — redirecting this renewable electricity to DAC rather than paying generators to curtail creates a double benefit (avoided curtailment cost, DAC carbon removal) that justifies DAC-wind co-location economics. Carbon removal certificates under the UK Emissions Trading Scheme (UK ETS) inclusion pathway — under consultation as of 2025 — would create compliance market demand for DAC credits from UK ETS participants unable to fully abate operational emissions, potentially opening a market 10–20× larger than the current voluntary market.

Market at a Glance

ParameterDetails
Market Size 2024USD 0.16 billion
Market Size 2032USD 3.4 billion
Growth Rate49.5% CAGR (2026–2032)
Most Critical Decision FactorTechnology maturity and regulatory readiness
Largest SegmentLargest domestic segment
Competitive StructureFragmented — multiple platform and specialist players

Leading Market Participants

  • Storegga is the UK
  • Mission Zero Technologies
  • Carbon Engineering
  • Origen Carbon Solutions' lime kiln integration approach

Regulatory and Policy Environment

The UK's CCS Business Models framework — providing revenue support through Dispatchable Power Agreements, Industrial Carbon Capture (ICC) business model, and the emerging Carbon Removal Business Model — collectively de-risks UK DAC investments through government revenue certainty. The Climate Change Committee's Sixth Carbon Budget explicitly includes engineered carbon removals of 50–75 MtCO₂/year by 2050 as a required element of the UK's net-zero pathway, establishing DAC as a policy-mandated technology with long-term demand visibility. The UK Voluntary Carbon Market Transparency Code provides quality standards for voluntary DAC removal credits that reduce buyer fraud risk and support premium pricing for certified UK DAC projects. North Sea CO₂ storage licensing through NSTA (North Sea Transition Authority) provides the legal framework for permanent geological storage that is required for certified permanent DAC removal credits.

Long-Term Outlook

The UK DAC market will progress from demonstration to commercial scale between 2025 and 2032, with 2–4 commercial DAC plants operational by 2028 supported by government Hub programme funding and voluntary market demand. UK ETS inclusion of carbon removals — expected post-2027 — will be the transformative market event, opening compliance buyer demand that could support 2–4 Mt CO₂/year of UK DAC capacity by 2032, compared to approximately 50,000 tonnes in operation at end-2025. The UK's unique combination of North Sea storage access, offshore wind curtailment opportunity, and industrial CCS cluster infrastructure positions it as a lower-cost DAC deployment location than most European alternatives, potentially making it the preferred location for international DAC investment seeking European compliance market access.

Frequently Asked Questions

The UK's GBP 20 billion CCUS support package includes the DAC Hub programme providing capital grants for commercial DAC plants, the Carbon Removal Business Model providing 15-year revenue support analogous to a CfD for carbon removal credits, and R&D funding through UKRI's Industrial Decarbonisation Challenge. DESNZ's CCUS Cluster Sequencing programme has designated the East Coast Cluster and HyNet as priority CCS hubs with government co-investment in transport and storage infrastructure that DAC plants can access at regulated access tariffs.
North Sea saline aquifers and depleted gas fields accessed via the Acorn pipeline (Scotland) and East Coast Cluster infrastructure (Humber) provide characterised, permitted CO₂ storage without the multi-year site development investment required for DAC projects in markets without established CCS infrastructure. Storage in well-characterised offshore aquifers provides the permanence and monitoring assurance required for certified removal credits under both voluntary frameworks (Puro.earth, BeZero) and emerging compliance standards, reducing per-tonne credit certification cost relative to greenfield storage site development.
Mission Zero Technologies uses electrochemical pH swing to capture CO₂ — running air through an alkaline solution, using electrical current to change the solution's pH and release concentrated CO₂, then recycling the solution. The approach potentially reduces the thermal energy requirement of conventional sorbent regeneration by replacing heat with electricity, making it better suited to locations with cheap renewable electricity than conventional DAC and avoiding the high-temperature regeneration cycles that accelerate sorbent degradation.
Yes — inclusion of verified carbon removals in the UK ETS would create compliance buyer demand from approximately 1,000 UK ETS participants (power stations, industrial plants, aviation) seeking to offset residual emissions that cannot be avoided through operational changes. ETS carbon credit demand could support 1–4 MtCO₂/year of DAC capacity at UK ETS carbon prices of GBP 40–80/tonne, dramatically exceeding the voluntary market's current capacity.
DAC is one of the most electricity-intensive industrial processes — current solid sorbent systems consume 1,500–2,500 kWh of electricity and heat per tonne of CO₂ captured. UK industrial electricity prices of GBP 100–150/MWh for grid-connected operations translate to GBP 150–375 in energy cost per tonne of CO₂ — representing 30%–50% of total operating cost.

Market Segmentation

By Technology: Solid Sorbent DAC, Liquid Solvent DAC, Electrochemical CO₂ Separation, Mineral Carbonation. By CO₂ End-Use: Permanent North Sea Geological Storage, Synthetic Fuel (SAF), Concrete and Building Materials. By Scale: Pilot (below 1,000 t/year), Commercial Small (1,000–100,000 t/year), Commercial Large. By Funding Mechanism: Government Grant-Funded, Voluntary Market-Funded, Compliance Market-Funded.

Table of Contents

Chapter 01 Methodology and Scope
Chapter 02 Executive Summary
Chapter 03 United Kingdom Direct Air Capture (DAC) — Market Analysis
3.1 Market Overview
3.2 Key Growth Drivers
3.3 Market Challenges
3.4 Emerging Opportunities
Chapter 04 Market Segmentation
Chapter 05 Regulatory and Policy Environment
Chapter 06 Competitive Landscape
Chapter 07 Long-Term Outlook and Forecast, 2026–2032

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