SpiralWave utilizes cold atmospheric plasma technology to convert dilute-source CO2 and H2O into e-methanol in a single-step process, eliminating the need for captured CO2 and H2 as feedstocks. This method enables large-scale CO2 removal while producing methanol at a significantly lower cost, contributing to a circular economy and addressing climate change.
Funding
Funding not disclosed
Founders
Product
Problem
Traditional methods of producing methanol require concentrated sources of carbon dioxide and hydrogen as feedstocks, limiting scalability and increasing costs. Existing carbon capture technologies are energy-intensive and expensive, hindering widespread adoption of carbon utilization strategies.
Solution
SpiralWave employs cold atmospheric plasma technology to convert dilute-source carbon dioxide (CO2) and water (H2O) into e-methanol in a single-step process. This innovative approach eliminates the need for concentrated CO2 and H2, enabling direct air capture and utilization. By using cold plasma, the process operates at lower temperatures and pressures, reducing energy consumption and overall costs. The resulting e-methanol can be used as a sustainable fuel, chemical feedstock, or energy storage medium, contributing to a circular economy and mitigating climate change. This technology offers a scalable and cost-effective solution for large-scale CO2 removal and resource recovery.
Target Audience
The primary target audience includes companies in the energy, chemical, and transportation sectors seeking sustainable alternatives to traditional methanol production, as well as organizations focused on carbon capture and utilization technologies.
Features
- Single-step conversion of dilute CO2 and H2O into e-methanol using cold atmospheric plasma
- Operates at low temperatures and pressures, reducing energy consumption
- Modular reactor design for scalable deployment
- Integration with renewable energy sources for sustainable operation
- Production of high-purity e-methanol suitable for various applications