If you are a brewery dealing with high CO2 emissions—this project developed a scalable platform that converts those emissions into food-grade ingredients. This allows you to turn a waste stream into a new revenue source of proteins or oils.
Converting Brewery CO2 Emissions into High-Value Vegan Food Ingredients
Imagine taking the exhaust gas from a brewery and using it as food for tiny, engineered microbes. These microbes act like miniature factories, turning that pollution into proteins and oils. It is essentially turning air pollution into a barista drink or a beauty snack.
What needed solving
The food sector relies heavily on fossil and agricultural resources and struggles to decarbonize. There is a lack of scalable methods to turn industrial waste gases into high-value, food-grade nutrients.
What was built
An integrated, scalable EU platform that converts brewery CO2 into lactic acid, single cell protein, and microbial oils. This includes a digital twin for process optimization and two validated consumer products.
Who needs this
Who can put this to work
If you are a food producer dealing with the high cost of agricultural protein sources—this project developed precision fermentation routes that create high-value ingredients. This enables the production of protein-rich barista beverages with a lower carbon footprint.
If you are a beauty brand dealing with the need for sustainable, functional ingredients—this project developed microbial oils and nutrients. These can be formulated into beauty food pouches that meet strict food-grade purity and safety standards.
Quick answers
What is the expected cost or price of the ingredients?
Based on available project data, specific pricing is not provided, but the project uses Techno-Economic Assessment (TEA) to ensure economic viability for industrial deployment.
At what scale is this technology being developed?
The project is operating at a demonstration scale (TRL7), utilizing real CO2 emissions captured from a brewery to prove scalability.
How is the intellectual property or licensing handled?
Based on available project data, the project will deliver an open-access digital platform to support broader adoption and replication of the business models.
How does the project handle food safety regulations?
The process includes downstream processing routes specifically designed to ensure food-grade purity, safety, and regulatory compliance.
When will the results be available for industrial use?
The project period runs from 2026-06-01 to 2030-05-31, suggesting industrial validation will be completed by May 2030.
Who built it
The consortium is heavily industry-driven, with 9 industrial partners representing a 56% industry ratio. The presence of 11 SMEs suggests a focus on agile commercialization and specialized tech providers. With 16 partners across 8 European countries, the project is well-positioned for cross-border market entry and industrial scaling.
Contact AINIA in Spain for details on the scalable CO2-to-food platform.
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