1. Advanced Catalysis

    Advanced catalysis plays a pivotal role in intensifying industrial processes, driving efficiency and sustainability. By leveraging multi-functional catalysts—designed with a structured catalytic matrix that controls molecular diffusion and access to active sites—we can streamline complex chemical reactions. These catalysts allow multi-step chemical conversions to occur within a single reactor, known as "one-pot reactors," while maintaining high selectivity and stability.
    In the COOKET project, advanced catalysis is applied across several key processes, including:

         •   CO₂ reduction to syngas and methane
         •   Reforming of hydrocarbon-based (bio or industrial) waste streams
         •   Production of higher hydrocarbons from alternative feedstocks
         •   Green hydrogen production via ammonia dehydrogenation
         •   Hydrotreating of raw streams from (bio or industrial) wastes.

    By optimising these catalytic processes, COOKET aims to transform the chemical industry, enhancing efficiency and reducing environmental impact.

2. Electrification Technologies

    Electrifying industrial processes is crucial for reducing carbon emissions and achieving sustainable production. By replacing traditional technologies with electricity-powered alternatives, industries can tap into zero-emission energy sources while promoting sector integration and cleaner energy ecosystems.
    In the COOKET project, we focus on electrifying key industrial processes using three innovative Key Enabling Technologies (KETs). These KETs not only enable more efficient heating but also revolutionise chemical transformations by direct use of electricity. Our approach includes:

         •   Electrochemical cells and reactors for electricity-driven chemical reactions
         •   Magnetic induction heating for precise, contactless heat generation
         •   Joule heating for direct and efficient electrical resistance-based heating.

    Through these cutting-edge technologies, we aim to set a new standard for sustainable industrial operations.


3. Process Modelling and Digitalisation

    Reactor and process modelling will be crucial for designing and optimising industrial production systems in COOKET. High-fidelity models will enable the creation of digital twins—virtual replicas of physical processes—that can be used to evaluate and optimise operating conditions in real-time. This will enhance technical, economic, and environmental performance.
    COOKET will apply two advanced modelling strategies:

        •   Multi-physics modelling, which simulates multiple physical phenomena—such as chemical kinetics, mass and heat transfer, and fluid mechanics—simultaneously. This approach will solve complex systems of equations, offering detailed insights into process behaviour.
        •   Integrated process simulation, which will design and optimise chemical processes by analysing system architecture and unit operations. This simulation will help determine how varying feedstocks and operating conditions affect overall performance.

    By combining these strategies, COOKET will develop multi-scale models that capture all relevant steps and phenomena of a process. This integrated platform will allow real-time assessment of operations, exploration of "what-if" scenarios, and optimisation of critical variables such as feedstock, temperature, pressure, and energy flows. Ultimately, this will maximise energy efficiency and product yield while minimising costs and environmental impact.


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