The EU–Canada Horizon 2020 project EUCANwin! aimed to improve the sustainability, efficiency and cost-effectiveness of biomass-to-bioenergy value chains through an integrated approach covering biomass supply chains, advanced conversion technologies, carbon capture options, techno-economic assessment, and social and environmental aspects.
From project start until Month 16, the consortium implemented the planned activities across all work packages and established effective transatlantic collaboration. The following main results were achieved:
Development of a Forest Biomass Atlas prototype and a biomass supply chain simulation framework.
Initial testing of an on-board biomass quality measurement concept.
Preparatory design and modelling of a high-efficiency biomass conversion system, with a focus on reduced NOx emissions.
Completion of an overview and comparative assessment of CO2 capture technologies, including relevant performance indicators.
Progress in techno-economic analysis supporting system evaluation.
Implementation of communication, dissemination and stakeholder engagement activities, including identification of experimental communities in Europe and Canada and delivery of a stakeholder engagement plan.
Project implementation was affected by COVID-19-related restrictions and site-specific constraints linked to the planned 500 kW system. The project was suspended in Month 16 to allow the consortium to assess alternative mitigation measures. Differences in the interpretation of the applicable technology readiness level were identified during this process. Despite extensive internal work, the consideration of multiple mitigation options, and continued constructive exchanges with CINEA during the suspension period, no solution meeting the required conditions could ultimately be agreed, and the project was therefore formally terminated by the Commission.
Despite early termination, the project delivered exploitable methodological and analytical results, including tools, models, and assessments related to biomass supply chains, conversion technologies, and CO2 capture options. These results remain relevant for future research and innovation actions and can support continued EU–Canada cooperation in sustainable bioenergy.
