Project Description This PhD position focuses on the development and optimization of smart materials and their integration into innovative thermal energy storage (TES) systems, specifically designed for next-generation heat batteries. The aim is to engineer materials that efficiently store and release thermal energy with enhanced control mechanisms. This research aims to optimize heat release for flexible applications in both residential and industrial energy systems.
You will lead experimental efforts to develop and test new salt hydrate based composite materials that address key challenges related to the heat battery system, including phase separation, repeated cycle stability, and controlled energy release. Additionally, the project will emphasize advanced manufacturing techniques for heat transfer enhancement by designing smart and efficient heat exchangers. The role will involve close collaboration with industry and academic partners, using both experimental results and numerical modeling to drive the design of scalable, high-performance heat storage solutions.
Responsibilities: - Conduct experimental research on smart phase change materials (PCM) and their application in heat battery systems to optimize energy storage and release.
- Design and innovate composite materials for enhanced thermal storage, addressing challenges such as phase separation and cycle durability within the heat battery context.
- Utilize advanced manufacturing techniques to design and create smart, efficient heat exchangers that enhance heat transfer performance.
- Use experimental setups to evaluate thermal performance, energy density, and material durability under various operating conditions in heat battery applications.
- Collaborate with project partners to integrate materials into scalable TES systems and validate numerical models with experimental data, ensuring compatibility with heat battery designs.
- Explore potential applications of these materials and systems for both short-term and long-term energy storage solutions in practical systems