If you are a chemical producer dealing with high carbon emissions — this project developed a low temperature electrolyser that converts waste CO2 into carbon monoxide. This allows you to create fine chemicals and pharmaceutical drugs from waste instead of fossil fuels.
Solar-Powered System to Convert Waste Carbon Dioxide into Industrial Chemicals
Imagine a machine that acts like an artificial leaf, but on a much larger scale. It takes sunlight and waste gas from factories and turns them into useful building blocks for fuels and plastics. Instead of letting pollution float away, it uses electricity from solar panels to bake that gas into valuable raw materials.
What needed solving
Industries struggle to reduce carbon emissions while maintaining economic growth. Current carbon capture methods often lack a profitable way to turn captured CO2 into high-value products.
What was built
A 20-foot containerised CO2 electrolyser unit and a multicell stack system capable of converting CO2 to CO using solar power.
Who needs this
Who can put this to work
If you are a fuel producer dealing with the need for carbon-neutral aviation fuels — this project developed a technology to produce e-kerosene and e-wax. It uses photovoltaic power as the only energy source to transform waste CO2 into these energy carriers.
If you are a grid operator dealing with excess solar power during peak hours — this project developed a containerised CO2 electrolyser unit. This system acts as a way to store solar energy by converting it into chemical products.
Quick answers
What is the industrial scale of the current technology?
The project developed a containerised demonstrator unit capable of processing 100 t of CO2 per year.
What is the intellectual property status?
The technology is backed by two PCT patent applications and research published in Nature Energy.
How much does the system cost to implement?
Based on available project data, specific pricing is not provided, but a detailed technoeconomic assessment was performed to prove competitiveness.
What is the timeline for full commercialization?
The objective is to reach TRL 8-9 and become a leading electrolyser provider by 2030, with a pilot plant proving viability by 2027.
How is the system integrated into existing infrastructure?
The technology is built into a 20 feet long standard container including all electronics and control systems for easier deployment.
Who built it
The project is led by a single Hungarian SME, ECHEMICLES ZARTKORUEN MUKODO RESZVENYTARSASAG. With a 100% industry ratio and no university or research partners in the consortium, the focus is heavily weighted toward commercial transition and investor readiness rather than basic research.
Contact ECHEMICLES ZARTKORUEN MUKODO RESZVENYTARSASAG in Hungary
Talk to the team behind this work.
Contact us to explore licensing opportunities for this CO2 electrolysis technology.