As market and customer manager, Beatriz Corral analyzes some of the key industry and technology issues in thermal storage and its conversion to industrial applications.

1. Why is thermal storage and its conversion so important for the industry of the future?

Thermal storage and its conversion are key for the industry of the future because they allow the efficient management of thermal energy generated in industrial processes and renewable sources, optimizing its use and reducing waste. In a context where sustainability and decarbonization are priority objectives, thermal storage solutions make it possible to make better use of available energy resources, ensuring stability of supply, regardless of the intermittency of renewable sources. In addition, these technologies facilitate the integration of more sustainable industrial processes and promote the circular economy through the recovery and reuse of waste heat generated in various activities.

2. What trends can we expect in thermal storage this year?

In 2025, thermal storage will focus on improving the efficiency of existing systems and expanding their integration into various industrial and renewable sectors. One of the main trends will be waste heat recovery in industrial processes, which will reduce energy consumption and improve the sustainability of operations.

In addition, we will see a strong push in the development of phase change materials (PCMs) and molten salts to optimize heat storage at different temperatures, increasing the capacity of systems and extending storage life. There will also be advances in the integration of these systems with renewable sources such as solar thermal energy, enabling greater stability in energy supply.

On the other hand, innovations are expected in heat-to-electricity technologies, such as advanced thermodynamic cycles, which will make it possible to use stored heat more efficiently to generate electricity. Finally, the digitization and monitoring of thermal storage systems will be a key trend, making it possible to optimize their performance and anticipate possible failures.

3. Where are the major challenges of these technologies?

The major challenges of thermal storage are mainly related to the efficiency of materials and the scalability of solutions. On the one hand, materials used in thermal storage, such as molten salts or phase change materials, still face challenges in terms of long-term stability, corrosion and cost. Progress is needed in the development of more durable, cost-effective materials with higher storage capacity.

On the other hand, the integration of these systems into industrial processes and energy grids remains a challenge. Many industrial sectors have not yet adopted these technologies on a widespread basis, and it is necessary to work on business models that demonstrate their economic viability and return on investment.

Another major challenge is the development of more efficient and cost-effective heat-to-electricity systems. Although there are promising technologies, such as advanced thermodynamic cycles, more research is still needed to improve their efficiency and reduce the associated costs.

Finally, there is the challenge of regulation and incentives. Public policies need to support the adoption of these technologies through economic incentives, regulations that encourage their use and pilot projects to demonstrate their effectiveness in different applications.

4. Is there a growing awareness of companies for this type of solutions?

Yes, more and more companies are showing increasing interest in thermal storage solutions. This is mainly due to the need to improve energy efficiency, reduce their carbon emissions and comply with increasing environmental regulations. Industrial sectors such as chemicals, metals and food are starting to integrate thermal storage technologies to optimize their processes and take advantage of waste heat.

In addition, companies are seeing these technologies as an opportunity to reduce operating costs in the long term. The possibility of recovering and reusing heat that would otherwise be lost allows them not only to be more sustainable, but also more competitive in economic terms. At the same time, the rise of sustainability commitments and decarbonization goals are pushing many companies to look for innovative solutions that contribute to the energy transition.

5. How can a center like CIC energiGUNE help in these technologies and solutions?

We play a key role in the development and implementation of thermal storage technologies through applied research and joint work with industry. One of our main contributions is research into new materials that improve the efficiency and durability of thermal storage systems, such as advanced phase change materials or more stable and economical molten salts.

In addition, we collaborate in the design of customized solutions for different industrial sectors, tailoring thermal storage technologies to the specific needs of each process. This ranges from waste heat recovery to the integration of heat-to-electricity systems, helping companies maximize their energy use and reduce their carbon footprint.

Another key aspect is the digitization and monitoring work carried out at the center. We work on intelligent systems that allow us to optimize the performance of thermal storage systems in real time, improving their efficiency and extending their useful life.

Finally, the center acts as a bridge between science and the market, facilitating technology transfer and accelerating the adoption of innovative solutions by industry. This translates into pilot projects that validate technologies in real environments and demonstrate their economic viability, which is crucial to fostering their deployment on a large scale.

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