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Ling Ziye

Engineer ,

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Department: School of Chemistry and Chemical Engineering

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Research Interests: Thermal Energy Storage Technology

Biography

Dr. Ziye Ling received his doctoral degree in Chemical Engineering, where he developed a strong foundation in thermophysical science, materials engineering, and energy systems analysis. His academic training combined rigorous theoretical coursework with extensive experimental and modeling experience, equipping him with interdisciplinary expertise spanning heat transfer, materials science, and electrochemical energy technologies.

Following the completion of his Ph.D., Dr. Ling joined South China University of Technology, where he has progressed through academic appointments to become a professor and doctoral supervisor. In his professional career, he has undertaken roles that integrate research, teaching, and academic leadership. He has been actively involved in curriculum development, graduate supervision, and the establishment of interdisciplinary programs related to energy storage and chemical engineering.

Beyond academia, Dr. Ling has collaborated extensively with industrial partners and research institutes, contributing to joint development projects, technology transfer initiatives, and applied engineering programs. His career reflects a balance between higher-education responsibilities, scientific research management, and industry-oriented innovation, with sustained engagement in both domestic and international academic and professional exchanges.


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The research direction focuses on advanced thermal management and energy-storage safety, with systematic studies on the design, synthesis, and engineering applications of phase-change thermal storage materials, thermochemical storage materials, and their composite structures. Through multi-scale heat and mass transfer analysis combined with data-driven modeling approaches, the intrinsic relationships between microstructural features, thermophysical properties, and macroscopic thermal response are elucidated, enabling the development of functional material systems that simultaneously achieve high energy-storage density, enhanced thermal conductivity, and long-term cycling stability. Building on this foundation, the work further targets high heat-flux electronic devices, electrochemical energy-storage systems, and aerospace or extreme-environment equipment, conducting integrated material–device–system thermal control design and coupled heat-transfer mechanism studies. By exploring synergistic enhancement pathways involving phase change, gas–liquid two-phase flow, and thermochemical reactions across multiple physical fields, the research aims to realize lightweight, high-power-density, and high-safety-margin thermal management solutions, providing both theoretical foundations and engineering support for the safe operation of new-energy technologies and efficient energy utilization.

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