If you are a utility company dealing with the intermittent nature of renewable power — this project developed a hydroxide salt storage system that provides a compact and scalable way to produce both heat and electricity from a single source.
High-Temperature Molten Salt Energy Storage for Industrial Decarbonization
Imagine a giant thermos that can hold heat for a long time using special salts. This system captures extra energy as heat and saves it for when it's needed most. By using a specific chemical trick to stop the salt from eating through the metal tanks, the system lasts longer and costs less.
What needed solving
Energy-intensive industries struggle to decarbonize because renewable energy is intermittent and existing thermal storage is often too expensive, bulky, or corrosive to be practical.
What was built
A thermal energy storage system using hydroxide salts, including a patented corrosion control method and industrial-grade oxoacidity sensors for remote monitoring.
Who needs this
Who can put this to work
If you are a factory operator dealing with high carbon emissions in heat-heavy processes — this project developed a thermal energy storage system that helps decarbonize operations using high-temperature heat.
If you are a food producer like Arla dealing with high energy costs — this project developed a cost-efficient thermal storage solution to stabilize energy use and reduce carbon footprints.
Quick answers
How does this impact the total installation cost?
The project activities focus on achieving a 70% total installed cost (TIC) reduction through technology development and component design optimization.
Can this be deployed at an industrial scale?
Yes, the system is designed to be scalable and compact, utilizing a design proven for over 20 years in the concentrated solar power industry.
What intellectual property protects this technology?
The system is built around a patented method for adjusting oxoacidity to limit and control corrosion of hydroxide salts on structural materials.
How is the system monitored for safety and maintenance?
The project is industrializing oxoacidity sensors and developing feedback mechanisms for remote monitoring and predictive maintenance.
What is the current commercial progress?
Based on available project data, Hyme has progressed its first commercial project with Arla and submitted an application to the EU Innovation Fund.
Who built it
The project is led by a single Danish SME, Hyme Storage ApS, which operates as a spin-off from Seaborg ApS. With a lean 1-partner structure and 35 FTEs, the consortium is 100% industry-driven, focusing on rapid commercialization and industrialization rather than academic research.
Contact HYME STORAGE APS in Denmark
Talk to the team behind this work.
Contact us to explore licensing opportunities for hydroxide salt corrosion control.