Imagine taking farm waste and turning it into a clean fuel and a super-fertilizer. The process burns waste in a special way that doesn't create much pollution, using that heat to pull carbon dioxide out of the air to make hydrogen gas. The leftover charcoal then acts like a sponge to soak up nitrogen, making soil healthier for crops.
Industries struggle to manage CO2 emissions and nitrogen imbalances while utilizing low-heating-value biomass residues efficiently.
A conceptual process for CO2 reforming and biochar production, supported by numerical models and experimental laser diagnostics.
If you are a chemical producer dealing with high carbon emissions — this project developed a CO2 reforming process that turns biomass and CO2 into hydrogen-containing syngas. This allows you to create chemical feedstocks while reducing your net carbon footprint.
If you are a soil amendment company dealing with nitrogen imbalance in farmland — this project developed an activated biochar material. This material adsorbs nitrogen and restores soil balance, creating a high-value product from biomass residues.
If you are an energy provider dealing with low-quality biomass fuels — this project developed a MILD combustion method. This allows for efficient, low-pollutant energy conversion that can be supplemented by solar and wind power.
Based on available project data, specific costs are not provided, but the project develops numerical models to serve as cost-effective optimization tools for biomass conversion.
The project aims to develop a scalable process, but current activities focus on experimental research, laser diagnostics, and numerical modeling.
Based on available project data, there is no specific information regarding patents or licensing agreements.
The process is designed to be supplemented by intermittent energy sources such as solar and wind power to provide heat for reforming.
The project period runs from 2023-11-01 to 2028-10-31, suggesting that commercial readiness would follow this research phase.
The consortium is purely academic and research-driven, consisting of 4 partners from 3 countries (Denmark, Italy, Sweden). With 0% industry representation and a mix of 2 universities and 2 research organizations, the project is currently focused on scientific validation and modeling rather than immediate commercial application.
Contact Lunds Universitet in Sweden
Contact us to track the transition of these numerical models into industrial pilots.
