His research interests encompass a broad spectrum within the realm of electrical engineering, with a focus on various aspects of power electronics, control theory, and artificial intelligence. Specifically, he delves into the intricacies of power electronics topology and control mechanisms tailored for Solar PV Power Generation systems. Additionally, he is deeply engaged in exploring advanced control theories and system identification methodologies, translating theoretical frameworks into practical implementations with real-world applications. Furthermore, he demonstrates a keen interest in leveraging Artificial Intelligence techniques, particularly evolutionary optimization algorithms and deep learning methodologies, to address contemporary challenges in the field. Through his interdisciplinary approach, he continually seeks innovative solutions to enhance the efficiency and performance of electrical systems while contributing significantly to the advancement of research in these domains.
Main Project Experience
Throughout his tenure as a Research Fellow, Mr. Mao has been actively engaged in several projects spanning various facets of power electronics and renewable energy systems. As the Director of the first project, sponsored by the National Natural Science Foundation of China, he led research efforts focusing on the optimization strategies of photovoltaic arrays installed on highway pavements under dynamic random vehicle shading. This involved modeling and analyzing pavement PV panels based on vehicle traffic flow theory, as well as designing offline optimization configurations and maximum power point tracking strategies using data-driven approaches and autonomously evolving algorithms.
In another project, also directed by Mr. Mao and sponsored by the Chongqing Postdoctoral Science Foundation, he explored research on photovoltaic DC pooling topology and active fault-tolerant control mechanisms amidst local power attenuation. This endeavor entailed designing DC boost collecting systems for large photovoltaic power stations, establishing fault expert databases, and devising fault prediction and processing schemes based on data analysis technologies.
Additionally, Mr. Mao played a core role in projects investigating the aging laws and reliability evaluation methods of key components in large capacity power electronic equipment, as well as the impact analysis and control methods for photovoltaic power generation systems under the hot spot effect. These projects, sponsored by various entities including the National High Technology Research and Development Program of China and the National Natural Science Foundation of China, involved modeling PV panels under the hot spot effect, developing AI techniques for control, and implementing wireless detection methods for PV panel hot spots.
Furthermore, he contributed as a core participant in a project sponsored by the Major State Basic Research Development Program, focusing on advanced control techniques for new energy power systems. In this project, he delved into multi-agent control in nonlinear systems, stabilization problems with constrained states, and various other unknown issues, showcasing his diverse expertise and commitment to advancing the field of renewable energy systems.