E-ethylene converts captured CO2 directly into ethylene using advanced MEA electrolyzer technology and proprietary noble-metal-free catalysts. This process provides a sustainable feedstock for the chemical industry, reducing reliance on fossil fuels and supporting decarbonization goals.
Funding
Funding not disclosed
Founders
Product
Problem
The chemical industry's reliance on fossil fuels for feedstock contributes significantly to global CO2 emissions, with ethylene production alone accounting for substantial annual emissions. This dependence hinders progress towards net-zero targets and sustainable material sourcing.
Solution
E-ethylene offers a sustainable alternative by directly converting captured CO2 into ethylene using advanced membrane electrode assembly (MEA) electrolyzer technology. This process utilizes renewable electricity to drive the electroconversion of CO2, producing ethylene as a direct substitute for fossil-derived feedstock. By sequestering carbon into essential products like plastics and textiles, E-ethylene supports the chemical industry's decarbonization efforts and facilitates the transition to a circular economy. The technology focuses on developing high-selectivity, noble-metal-free cathode catalysts for efficient CO2 electroreduction.
Target Audience
E-ethylene targets chemical manufacturers and industries that utilize ethylene as a primary feedstock, as well as companies focused on carbon capture utilization and storage (CCUS) solutions.
Features
- Membrane Electrode Assembly (MEA) electrolyzer for direct CO2 electroconversion.
- Advanced cathode catalysts based on transition metals, free of noble metals, for high selectivity towards ethylene and carbon monoxide.
- MEA cell design featuring a gas diffusion electrode for CO2 introduction and a water oxidation anode, separated by a solid electrolyte membrane.
- Zero-gap design to enhance energy efficiency and scalability for industrial applications.
- Proprietary catalyst development with published research in peer-reviewed journals, including ACS Catalysis, ACS Nano, and Nature Energy.
- Technology platform capable of utilizing CO2 from various sources, including industrial emissions and Direct Air Capture.