If you are a glass manufacturer dealing with high peak energy costs — this project developed a digital twin and decision support system that can help reduce energy costs by over 8% and peak demand by 18%.
Digital Toolkit for Reducing Energy Costs and Carbon Taxes in Heavy Industry
Imagine your factory has a digital twin—a perfect virtual copy that tells you exactly how to run your machines to save power. It's like having a smart GPS for your energy use that suggests the best time to run production based on electricity prices and green energy availability. This helps big plants stop wasting energy and avoid expensive carbon penalties.
What needed solving
Energy-intensive industries struggle with high electricity costs, rigid production processes, and increasing CO2 taxes. They lack the digital tools to adapt their production to the availability of cheap, green energy.
What was built
An end-to-end digital transformation toolkit including Digital Twins, a multi-agent decision support system, and a Heat Pipe based Heat Exchanger prototype.
Who needs this
Who can put this to work
If you are a smelter dealing with rigid production schedules and high CO2 taxes — this project developed a flexibility toolkit that targets a flexibility cost below 1.2 €/kWh and helps avert over 110kt of CO2.
If you are a water utility dealing with inefficient energy sourcing — this project developed a Distributed Energy Storage solution and process analysis tools to lower energy demand by over 8%.
Quick answers
What are the expected cost savings for a company using this system?
The project targets over 8% reduction in energy costs and a total of 45M€ in energy costs and CO2 tax savings across the demo sites.
Is this technology tested at an industrial scale?
Yes, the toolkit is being implemented in 5 demo sites across the glass, copper, aluminium, and water industries.
How is the intellectual property or licensing handled?
Based on available project data, the project follows an 'X as a service model', suggesting a service-based delivery of the digital lifecycle management.
How does this integrate with existing factory hardware?
It uses a Digital Retrofitting process to collect process data directly and employs a Heat Pipe based Heat Exchanger prototype for sustainable energy sourcing.
What is the timeline for the results?
The project runs from September 2022 to August 2026, with projected impacts on jobs and CO2 by 2030.
Who built it
The consortium is heavily industry-weighted with 47% industrial partners, including 8 large companies and 7 SMEs. With 32 partners across 9 countries, the project balances academic research (3 universities, 12 research organizations) with practical application, ensuring the digital tools are grounded in the actual needs of the glass, copper, aluminium, and water sectors.
Contact ASOCIACION DE INVESTIGACION METALURGICA DEL NOROESTE in Spain
Talk to the team behind this work.
Contact us to find out how to apply these energy flexibility tools to your plant.