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Electrochemical Direct Air Capture (e-DAC)
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NovaCO₂ develops low-energy modular e-DAC systems that capture CO₂ from ambient air using voltage-controlled regeneration.

About NovaCO₂

Scalable, Low-Energy Carbon Capture

NovaCO₂ develops scalable, low-energy electrochemical Direct Air Capture systems using redox-active capture media and electrified regeneration. Our technology is designed for modular, pilot-ready deployment — enabling distributed carbon removal at scale.

Redox-Active Media

Advanced capture chemistry

Electrified Regeneration

Voltage-controlled release

Modular Design

Pilot-ready format

Electrochemical capture and regeneration process

Electrochemical capture and regeneration process

Why This Matters

The Energy Bottleneck of Direct Air Capture

Current DAC technologies rely heavily on thermal energy for regeneration, creating a fundamental barrier to cost-effective scaling. NovaCO₂ addresses this through electrochemical pathways that dramatically reduce energy requirements.

Global DAC capacity needed

10 Gt CO₂/yr

by 2050 (IEA Net Zero)

Energy-intensive DAC limits scalability

Thermal regeneration methods consume enormous energy, driving up costs and carbon footprint of the capture process itself.

Need practical modular deployment

Current DAC solutions require massive centralized plants. The industry needs flexible, distributed deployment models.

Long-duration durability is essential

Capture media must maintain performance over thousands of cycles to achieve commercially viable operation.

Differentiators

What Makes NovaCO₂ Different

Our electrochemical approach solves the core challenges that limit current DAC technologies from reaching commercial scale.

~30 kJ/mol CO₂

Low Energy Demand

Electrochemical regeneration dramatically reduces energy requirements compared to thermal DAC approaches.

Stable Retention

Long Media Lifetime

Redox-active capture media designed for thousands of cycles with minimal degradation in performance.

Robust Operation

Oxygen-Stable Redox-Active Sorbents

Designed for long-term electrochemical CO₂ capture from ambient air at room temperature, maintaining high oxygen stability, redox reversibility, and capture capacity.

Recyclable Materials

Sustainable Chemistry

Built on earth-abundant, recyclable materials — minimizing environmental footprint of the capture system itself.

Technology

Electrochemical Capture, Designed for Scale

Our modular electrochemical process enables efficient CO₂ capture and regeneration with minimal energy input, producing verified clean carbon dioxide for downstream integration.

STEP 01

Capture

CO₂ absorbed from ambient air

STEP 02

Electrified Regeneration

Voltage-controlled release

STEP 03

Clean CO₂ Output

High-purity CO₂ stream

STEP 04

MRV Data

Verified removal metrics

STEP 05

Integration

Utilization or storage pathways

Electrochemical CO₂ Direct Air Capture (DAC) and CO₂ Reduction Reaction process diagram
Industrial carbon capture equipment

TRL 5+

Technology Readiness

What We Build

Modular e-DAC Systems for Real-World Deployment

Our modular electrochemical DAC units are engineered for practical, scalable deployment — from pilot demonstrations to commercial DAC hubs. Each unit integrates capture, regeneration, and data monitoring in a compact, transportable format.

  • Modular e-DAC units designed for containerized deployment
  • Optimized for DAC hubs and capture-to-utilization workflows
  • Produces high-purity clean CO₂ for storage or conversion
  • MRV-ready operational data for carbon credit verification
  • Plug-and-play integration with existing infrastructure
  • Scalable from pilot to commercial capacity

Market Fit

Who We Work With

NovaCO₂ technology integrates across the carbon removal value chain, serving a diverse ecosystem of partners and stakeholders.

DAC Hubs & Platform Developers

Organizations building multi-technology DAC hub infrastructure and platform-level carbon removal operations.

OEMs Building Capture Equipment

Equipment manufacturers integrating next-generation capture modules into existing industrial systems.

E-Fuel & E-Chemicals Developers

Companies converting captured CO₂ into sustainable aviation fuel, e-methanol, and other synthetic chemicals.

Industrial & R&D Pilot Sites

Research institutions and industrial partners operating pilot-scale demonstrations and testing facilities.

Some of Our Partners

DTU
Volkswagen
Łukasiewicz
Clean

Roadmap

Where We're Going

A clear pathway from laboratory validation to commercial-scale carbon removal technology.

Phase 12024 — 2025

Validate Capture Media

Synthesis and characterization of redox-active capture media. Proof-of-concept CO₂ binding and electrochemical release at lab scale.

Media synthesisBinding characterizationLab-scale proof
Phase 22025 — 2026Current

System Performance Testing

Integrated cell design and testing under realistic atmospheric conditions. Optimization of energy efficiency and cycle stability.

Cell integrationAtmospheric testingEfficiency optimization
Phase 32026 — 2027

Pilot-Scale Durability

Extended durability testing at pilot scale. Multi-thousand cycle demonstration with real-world operational parameters.

Pilot deploymentDurability validationMRV integration
Phase 42027+

Pathway to TRL 6+

Modular system demonstration in relevant environment. Commercial pathway development and partnership scaling.

System demonstrationCommercial scale-upPartnership expansion
Open for partnerships

Partner with NovaCO₂

We're seeking pilot partners, DAC hub developers, and industrial collaborators to demonstrate and scale our electrochemical carbon capture technology. Let's build the future of carbon removal together.

Contact Us

Location

Elektrovej, 2800 Kgs. Lyngby, Denmark

Stage

Pre-seed / Research Spin-out