Leonhard Kurz, a provider of advanced surface decoration solutions, is implementing ENERGYNEST’s power-to-heat system with thermal storage to reduce its reliance on natural gas and decarbonize its manufacturing processes. By converting renewable electricity into high-temperature heat, the system aims to provide heat on-demand while increasing energy efficiency and reducing CO2 emissions. The integration of advanced thermal storage is expected to make the energy source reliable, flexible, and carbon-free for industrial processes.
The power-to-heat solution features a 3 MWe electrical heater and a 12 MWhth ThermalBattery, seamlessly integrating into Leonhard Kurz’s existing thermal oil infrastructure. It is anticipated to deliver over 3 GWhth of clean heat annually and cover a significant portion of the facility’s heat demand, resulting in a reduction of natural gas consumption and CO2 emissions.
The partnership between Leonhard Kurz and ENERGYNEST showcases a scalable and effective decarbonization strategy that can be replicated worldwide. It aligns with the European Green Deal, Fit for 55, and other decarbonization initiatives across the EU to promote industrial electrification and reduce carbon emissions in key manufacturing sectors.
By leveraging advanced thermal storage technology, Leonhard Kurz aims to achieve a fully sustainable production lifecycle and CO2 neutrality, reinforcing its commitment to sustainability. The shift to electrified, renewable-based industrial heat is seen as a game-changer for manufacturing, increasing energy efficiency and reducing dependence on fossil fuels.
The transition towards renewable energy and clean tech manufacturing is part of the upcoming Clean Industrial Deal in Europe, with a significant amount of investment dedicated to rolling out renewable energy and decarbonizing industry. However, sectors like container glass are emphasizing the importance of investment, policy certainty, and access to energy in achieving climate neutrality.
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