Imagine a giant electric oven that doesn't just heat things up, but cleans industrial waste. It takes harmful gases like CO2 and sulfur and turns them into useful building blocks for fuels and chemicals. Instead of using fire to heat the process, it uses renewable electricity, making the whole operation much cleaner and faster.
Current CO2 conversion technologies struggle with streams containing acid gases like H2S and are often economically and environmentally inefficient. This leads to high energy costs and high carbon footprints in refineries and chemical plants.
An electrothermal fluidised bed reactor (ETFB) prototype and a pilot plant design. They also developed TEA and LCA models for industrial planning.
If you are an oil refinery dealing with expensive acid gas treatment—this project developed an electrothermal reactor that can replace the conventional Claus unit. It aims to reduce energy demand for acid gas treatment by 50% across European refineries. This allows for simultaneous CO2 reduction and sulfur recovery.
If you are a chemical plant dealing with high carbon emissions—this project developed a way to convert CO2 into platform molecules like CO and then into green methanol. It targets a 50% reduction in greenhouse gas emissions. This turns a waste stream into a marketable product.
If you are a biogas digester dealing with contaminated gas streams—this project developed a fast-response reactor that handles CO2 and H2S. It can be scaled to thousands of sites across Europe. This enables the production of useful chemicals from waste gas.
The project aims to demonstrate a 40% reduction in both CAPEX and OPEX compared to current technologies.
The project is scaling up to a TRL6 pilot producing 16t/y of CO, with a final commercial target of 34kt of CO2 converted per year.
Based on available project data, the consortium includes industrial partners and technology providers, but specific licensing terms are not detailed.
The reactor is designed to be powered by renewable energy sources and features a fast-response design to handle energy variability.
The project runs until February 2028, with a goal to impact over 130 European refineries by 2035.
The consortium is well-balanced for commercialization, featuring a 40% industry ratio with 4 industrial partners and 2 SMEs. With 10 partners across 5 European countries, the group covers the entire value chain from material suppliers and engineers to modeling experts, reducing the gap between academic research and industrial application.
Contact Universiteit Gent (Belgium)
Contact us to connect with the e-CODUCT consortium for pilot integration opportunities.
