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UNICO₂RN Brochure – Turning Biogenic CO₂ into a valuable resource

Banduka, Dusica

Abstract

CO2 emissions are a challenge for both the climate and industry stakeholders, calling for smart, sustainable solutions. The EU-funded UNICO₂RN project therefore aims to develop innovative processes that can turn CO₂ from biological sources (biogenic CO2) into valuable ingredients and materials. To achieve this goal, the project combines two promising approaches: • Metal Organic Framework (MOF) technology for highly efficient CO₂ capture and purification, and • Biotechnological processes using Hydrogen Oxidising Bacteria (HOB). These specialised bacteria can transform H2 and CO₂ into useful compounds, offering a sustainable alternative to fossil-based production routes. Building on these technologies, UNICO₂RN will design modular and flexible systems that can be adapted to different industrial needs and applications. This versatility will be demonstrated in two industrial cases operating at Technology Readiness Level 7 (TRL 7), where the robustness and efficiency of the processes will be validated under near commercial conditions. The demonstrations will illustrate how biogenic CO₂ sources of varying concentration and purity can be converted into two valuable products: 1) Microbial proteins, providing a sustainable nutritional source for food for humans and feed for animals, and 2) Polyhydroxyalkanoates (PHA), biodegradable biopolymers that can replace conventional plastics. By developing these novel conversion pathways, UNICO₂RN seeks to significantly improve resource efficiency and process safety while reducing the environmental footprint and greenhouse gas emissions associated with current production routes. Ultimately, reaching TRL 7 will lay the groundwork for industrial deployment, enabling substantial economic benefits and lower climate impact. In doing so, the project supports Europe’s transition towards a strong bioeconomy, where CO₂ is recognised not as waste but as a valuable carbon source, enabling carbon utilisation, valorisation and a truly circular carbon economy. This brochure informs about the project's key elements, partners involved and overall objectives.

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unico2rn.eu unico2rn.eu Funded by the European Union under the Grant Agreement No. 101214268. Views and opinions expressed are however those of the author(s) only and do not necessarily reflect those of the European Union. Neither the European Union nor the granting authority can be held responsible for them. Heleen De Wever, VITO [email protected] Flexible and Efficient Capture and Bioconversion of CO₂ to Materials and Ingredients Consortium Coordinator Project Details Grant No: 101214268 Duration: June 2025 – May 2029 (48 months) Budget: € 7,499,958.00 Flexible Solutions for Industrial Use UNICO₂RN develops modular and adaptable systems to suit different industrial needs and applications, as well as varying qualities of biogenic CO₂. A key feature is the successful demonstration of these technologies at two industrial sites operating at near-commercial conditions. These demonstrations focus on producing microbial proteins, serving as sustainable nutrition for food and animal feed, and biodegradable bioplastics called polyhydroxyalkanoates, which can replace conventional plastics. By validating these solutions at Technology Readiness Level 7, UNICO₂RN paves the way for broader adoption across industries. Commitment to Safety and Sustainability Beyond technical innovations, UNICO₂RN undertakes extensive safety and sustainability assessments. The project evaluates environmental, social, and economic impacts while ensuring compliance with future EU certification frameworks for sustainability. This approach guarantees a safe and responsible scale-up of the technology, reinforcing its positive contributions towards lowering greenhouse gas emissions and supporting a circular bioeconomy. ©NIZO ©VITO UNICO₂RN Benefits Effective capture and purification of biogenic CO₂ Sustainable conversion into microbial proteins and biodegradable bioplastics (80% energy efficiency gains) Modular technology adaptable to diverse industrial settings and needs Validation at near-commercial scale under real conditions Significant reduction in greenhouse gas emissions (minimum 75% reduction) Comprehensive safety and sustainability assessments aligned with EU frameworks Safer than current methods (operation at mild temperature and pressure, no solvents or use of green extraction solvents) Enhanced stakeholder engagement to support market uptake Turning Biogenic CO₂ into Valuable Products The UNICO₂RN project tackles one of today’s most pressing challenges: carbon dioxide (CO₂) emissions contributing to climate change. It targets CO₂ from biological sources such as biomass and organic waste. By capturing this biogenic CO₂ and transforming it through cutting-edge technology, UNICO₂RN creates valuable ingredients and materials that support a circular economy. The project combines two innovative approaches: An advanced metal-organic-framework (MOF) based technology for efficient CO₂ capture and purification, and specialised hydrogen-oxidising bacteria that convert captured CO₂ into useful compounds. Together, these approaches offer a viable alternative to fossil-based production methods. 2 1 Engaging Stakeholders for Impact UNICO₂RN actively involves a broad spectrum of stakeholders, including application users, researchers, industry, and policymakers. Through clear communication and targeted dissemination, the project fosters awareness, acceptance, and uptake of carbon capture and utilisation technologies. This engagement strategy helps build a strong foundation for market integration and highlights the environmental and societal benefits of transforming biogenic CO₂ into valuable products. Sampling and collection of biogenic CO₂ point sources CO₂ separation Metal-Organic Frameworks (MOF) based CO₂ capture CO₂ Aerobic gas fermentation platform Food ingredients Feed ingredients Biodegradable plastics Durable goods PHA extraction Polyhydroxyalkanoates (PHA) synthesis Microbial protein drying Microbial proteins synthesis Amino acids recovery Amino acids synthesis