Demonstration of reduced energy use and optimised flexible energy supply for industrial bio-based systems

Expected Outcome

Successful proposals should contribute to a clean, competitive and circular bioeconomy, through the development of innovative and climate-neutral bio-based processes.

Project results are expected to contribute to all the following expected outcomes:

• bio-based industries’ operators increase the uptake of innovative low-energy bio-based processes and the use of renewable energy in the processes and utilities of the industrial assets to progress towards climate neutrality and reduction of emission of air pollutants related to energy consumption;
• industrial bio-based systems improve their resilience against energy provision issues.

Scope

Key elements of circular economy applicable to industrial bio-based processes and technologies include increasing their energy and resource efficiency. In fact, on one side, industrial bio-based systems may be affected by a higher energy consumption; on the other side, energy supplies may experience shortage and/or price fluctuations that make the most energy-intensive sectors more vulnerable. Industrial bio-based systems within the scope of this topic do not include food/feed, biofuels, bioenergy and cultural/recreation sectors.

Proposals should select one or more case-studies of bio-based industrial systems, within the scope of the topic, in the EU and Associated Countries and:

• describe how to improve energy efficiency, developing and implementing, for example: energy efficient (thermal) separation technologies (e.g., membrane distillation); fast and energy efficient drying processes of biomass (e.g., for wood residues, algae residues, and other residual streams); optimized catalysts, enzymatic processes and reactors to save energy, etc.. analyse the rebound effect of energy saving measures and how to address them;
• analyse the nexus water-energy in the processes of the selected bio-based industrial systems and how the reduction of water consumption contributes to energy saving, e.g., in separation and purification processes, as well as how to address the water-energy integration within the factory by considering the whole processes and all the utilities;
• describe how to enable energy consumption flexibility through the optimization of processes with faster response rate to be flexible to variable energy supply, (e.g., by slowing production when less energy available, and prices are high, or increasing the production and/or storing energy and energy carriers onsite when surplus of energy is available, and prices are low);
• analyse the implementation of renewable energy use in the selected bio-based industrial systems, including shifting from fossil-based to renewable resources and/or shifting to electrification;
• include a task in the project to demonstrate the solutions analysed under the previous four bullet points, to i) improve energy efficiency; ii) integrate water-energy nexus; iii) enable energy consumption flexibility; iv) use renewable energy. Such solutions should be demonstrated on one or more of the selected case-studies, and should be optimized, also through the applications of digital tools including based on artificial intelligence. Assess the contribution to climate neutrality of the selected solutions.

For increased resource efficiency (water and energy use) and circular economy (e.g. minimisation of waste generation or raw materials use) in large industrial installations, please refer to the Innovation Centre for Industrial Transformation and Emissions (INCITE) (https://innovation-centre-for-industrial-transformation.ec.europa.eu/).

The multi-actor approach is encouraged.

In this topic the integration of the gender dimension (sex and gender analysis) in research and innovation content is not a mandatory requirement.

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Activities are expected to achieve TRL 7 by the end of the project – see General Annex B. Activities may start at any TRL.