Imagine a machine that works like a leaf, but instead of just growing a plant, it makes fuel. It uses sunlight to split water and then mixes that result with captured pollution from factories. Special bacteria then turn those ingredients into alcohols like butanol, which can be used as energy.
Industrial CO2 emissions cause climate change and are currently difficult to recycle efficiently. There is a lack of viable methods to convert these emissions into high-energy fuels using only renewable energy.
An integrated photovoltaic-powered alkaline water electrolyzer and bioengineered bacterial cultures for isobutanol synthesis.
If you are a factory dealing with high carbon emissions — this project developed a bio-refining system that turns those emissions into isobutanol. This transforms a waste product into a high-energy fuel source using only sunlight as energy input.
If you are an energy provider dealing with the difficulty of storing hydrogen — this project developed a method to store hydrogen directly into liquid hydrocarbons. This allows for easier transport and storage of solar energy in the form of alcohols.
If you are a fuel producer dealing with inefficient carbon recycling — this project developed bioengineered bacterial cultures that selectively synthesize isobutanol. This provides a path to create sustainable, high-energy solar fuels from industrial waste.
Based on available project data, specific pricing or cost-per-unit information is not provided.
The project aims to bridge the gap between laboratory scale and market integration, but current work focuses on developing the electrolyzer and bacterial cultures.
Based on available project data, there are no specific details regarding patents or licensing agreements.
The project is developing a solar fuels roadmap to help policy makers define the necessary legislations and policy measures for implementation.
The project runs from 2023-11-01 to 2027-10-31, suggesting the technology is still in the development and demonstration phase.
The consortium is heavily research-oriented, consisting of 8 universities and 2 research institutes. With only 1 industry partner (an SME), the project has a low industry ratio of 9%, indicating that the current focus is on scientific validation and prototype development rather than immediate commercial scaling.
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