Exploring Nanoparticle Diffusion Mechanisms at Metal Interfaces in High-Temperature Molten Salt Thermal Energy Storage

The study examines the diffusion mechanisms of nanoparticles at metal interfaces within high-temperature molten salt thermal energy storage systems. High operational temperatures and reliable thermal conductivity are critical for enhancing efficiency in solar thermal applications. The research highlights the impact of nanoparticles on heat transfer and stability in molten salts, which are essential for storing solar energy effectively. Using advanced characterization techniques, the study investigates how these nanoparticles interact at the metal interface, influencing thermal performance. The findings suggest that optimizing nanoparticle composition and distribution can significantly enhance the thermal energy storage capabilities of molten salts. This contributes to more efficient energy conversion systems and supports the development of sustainable energy technologies. Overall, understanding these diffusion mechanisms is crucial for improving the design and efficiency of thermal energy storage solutions in renewable energy applications. This research can inform future innovations in energy technology, particularly in the context of high-temperature systems.

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