Weiyu Wang | Electrical Engineering | Best Researcher Award

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Assoc. Prof. Dr. Weiyu Wang | Electrical Engineering | Best Researcher Award

Associate Professor at Changsha University of Science and Technology, China

Dr. Weiyu Wang is an accomplished Associate Professor at the School of Electrical and Information Engineering, Changsha University of Science and Technology, China. He earned his B.S. and Ph.D. degrees in Electrical and Information Engineering from Hunan University, respectively.  He was a Visiting Researcher at the University of Liverpool, U.K., enhancing his expertise in advanced power system stability and control. Since joining CSUST, Dr. Wang has led multiple national and provincial research projects focused on hybrid AC/DC power systems, HVDC technology, and renewable energy integration. and SCI-indexed journal publications, he is a rising figure in the field of electrical power engineering. Recognized as an Outstanding Reviewer by IEEE Transactions on Power Systems in , he continues to advance innovative solutions for modern energy systems.

Professional Profile

ORCID Profile | Google Scholar

Education

Dr. Weiyu Wang  academic journey  is marked by excellence in electrical and information engineering. He obtained his Bachelor of Science degree from Hunan University , where he developed a strong foundation in power systems, electronics, and control theory.  Driven by a passion for advanced research, he continued at Hunan University to pursue his Ph.D. in Electrical and Information Engineering, which he completed in . His doctoral research focused on stability analysis and control of hybrid AC/DC power systems, a cutting-edge area crucial for integrating renewable energy into modern grids. During his Ph.D., he broadened his academic horizon as a Visiting Researcher at the University of Liverpool, U.K, engaging in collaborative international research on oscillation control and HVDC systems.  This diverse educational background provided him with both deep technical knowledge and global perspectives, shaping his expertise in power system innovation.

Experience 

Dr. Weiyu Wang  began his academic career in  as a Lecturer at the School of Electrical and Information Engineering, Changsha University of Science and Technology (CSUST). Within just four years, his significant research contributions and leadership in power systems earned him a promotion to Associate Professor.  He has managed multiple funded projects, including those supported by the National Natural Science Foundation of China and the Hunan Provincial Natural Science Foundation, focusing on hybrid AC/DC system stability, HVDC oscillation control, and renewable energy integration.  In addition to academic research, Dr. Wang has collaborated with State Grid companies on consultancy projects addressing grid stability, energy efficiency, and fire risk assessment for transmission lines. His blend of theoretical expertise and real-world applications positions him as a leading voice in advancing sustainable and intelligent energy systems.

Research Interest

Dr. Weiyu Wang  research interests lie at the intersection of power system stability, control theory, and renewable energy integration. He focuses on stability analysis and hierarchical damping control for hybrid AC/DC power systems , particularly in systems involving multi-terminal HVDC technology. His work addresses challenges in oscillation modeling, synchronization stability, and multi-mode oscillation control   critical for large-scale renewable integration . He also explores distributed damping control strategies to enhance grid resilience, especially in the presence of multiple HVDC systems. His projects extend to equivalent coupled oscillator modeling and cooperative control methods for renewable-rich grids.  This research supports the development of more reliable, flexible, and efficient power systems worldwide.  Dr. Wang’s interdisciplinary approach bridges theoretical analysis, advanced simulation, and real-world grid applications, contributing to global advancements in clean energy transition and smart grid technology.

Award and  Honor

Dr. Weiyu Wang  has earned notable recognition for his contributions to electrical power engineering. He was honored as an Outstanding Reviewer for the prestigious IEEE Transactions on Power Systems, reflecting his expertise and dedication to advancing scholarly research.  His academic achievements are supported by competitive research grants, including the National Natural Science Foundation of China and the Hunan Provincial Natural Science Foundation. He has also played leading roles in consultancy projects with State Grid companies, addressing critical industry challenges in power system stability, energy efficiency, and operational optimization. Beyond research, Dr. Wang’s growing citation record and international collaboration experience underscore his influence in the global academic community.  His rapid promotion to Associate Professor in just four years further reflects his excellence in research, teaching, and engineering innovation.

Research Skill

Dr. Weiyu Wang  research skillset  covers stability analysis, advanced modeling, and intelligent control for modern power systems. He is proficient in multi-mode oscillation detection, hierarchical cooperative damping control, and synchronization stability assessment for renewable-integrated grids.  His expertise extends to multi-terminal HVDC systems, including oscillation characteristic analysis and distributed damping strategy design. He is skilled in equivalent coupled oscillator modeling, enabling accurate simulation of complex grid behaviors.  In industry-focused work, Dr. Wang applies energy efficiency evaluation and operational optimization under carbon trading mechanisms, as well as fire risk assessment for transmission infrastructure.  His technical capabilities are strengthened by hands-on experience with simulation platforms (MATLAB/Simulink, PSCAD) and real-world grid data analysis.  His research blends theoretical rigor, computational modeling, and engineering practicality, making him an asset to both academia and the power industry.

Publication Top Notes

Title: Adaptive droop control of VSC-MTDC system for frequency support and power sharing
Authors: W. Wang, Y. Li, Y. Cao, U. Häger, C. Rehtanz
Journal: IEEE Transactions on Power Systems, 33(2), 1264-1274
Year: 2017
Cited by: 226

Title: A virtual synchronous generator control strategy for VSC-MTDC systems
Authors: Y. Cao, W. Wang, Y. Li, Y. Tan, C. Chen, L. He, U. Häger, C. Rehtanz
Journal: IEEE Transactions on Energy Conversion, 33(2), 750-761
Year: 2017
Cited by: 209

Title: A parameter alternating VSG controller of VSC-MTDC systems for low frequency oscillation damping
Authors: W. Wang, L. Jiang, Y. Cao, Y. Li
Journal: IEEE Transactions on Power Systems, 35(6), 4609-4621
Year: 2020
Cited by: 120

Title: A flexible power control strategy for hybrid AC/DC zones of shipboard power system with distributed energy storages
Authors: L. He, Y. Li, Z. Shuai, J.M. Guerrero, Y. Cao, M. Wen, W. Wang, J. Shi
Journal: IEEE Transactions on Industrial Informatics, 14(12), 5496-5508
Year: 2018
Cited by: 81

Title: A distributed cooperative control based on consensus protocol for VSC-MTDC systems
Authors: W. Wang, X. Yin, Y. Cao, L. Jiang, Y. Li
Journal: IEEE Transactions on Power Systems, 36(4), 2877-2890
Year: 2021
Cited by: 37

Title: A perturbation observer-based fast frequency support for low-inertia power grids through VSC-HVDC systems
Authors: W. Wang, Y. Cao, L. Jiang, C. Chen, Y. Li, S. Li, X. Shi
Journal: IEEE Transactions on Power Systems, 39(2), 2461-2474
Year: 2023
Cited by: 19

Title: Interaction between grid-forming converters with AC grids and damping improvement based on loop shaping
Authors: W. Wang, X. Shi, G. Wu, Y. Cao
Journal: IEEE Transactions on Power Systems, 39(1), 1905-1917
Year: 2023
Cited by: 18

Title: Perturbation observer-based nonlinear control of VSC-MTDC systems
Authors: W. Wang, X. Yin, L. Jiang, Y. Cao, Y. Li
Journal: International Journal of Electrical Power & Energy Systems, 134, 107387
Year: 2022
Cited by: 17

Title: Latin hypercube sampling method for location selection of multi-infeed HVDC system terminal
Authors: X. Li, Y. Li, L. Liu, W. Wang, Y. Li, Y. Cao
Journal: Energies, 13(7), 1646
Year: 2020
Cited by: 12

Title: Inertia estimation of power grid with VSC-MTDC system
Authors: L. Hu, Y. Li, W. Wang, Y. Tan, Y. Cao, K.Y. Lee
Journal: IFAC-PapersOnLine, 51(28), 197-202
Year: 2018
Cited by: 12

Title: Virtual synchronous generator strategy for VSC-MTDC and the probabilistic small signal stability analysis
Authors: W. Weiyu, L. Fang, T. Yi, H. Jinhua, T. Shengwei, L. Yong, C. Yijia
Journal: IFAC-PapersOnLine, 50(1), 5424-5429
Year: 2017
Cited by: 8

Title: Adaptive droop control strategy participating in power grid frequency regulation for VSC-MTDC transmission system
Authors: W.Y. Wang, Y. Li, Y.J. Cao, Z.W. Xu, Y. Tan
Journal: Automation of Electric Power Systems, 41(13), 142-149
Year: 2017
Cited by: 8

Title: Optimal configuration of distributed energy storage considering intending island recovery in faulty distribution networks
Authors: C. Chen, L. Hong, Y. Chen, Q. Tan, L. Li, W. Wang
Journal: International Journal of Electrical Power & Energy Systems, 158, 109982
Year: 2024
Cited by: 7

Title: Flexible voltage control strategy of DC distribution network considering distributed energy storage [J]
Authors: L. He, Y. Li, Y.J. Cao, W. Wang
Journal: Transactions of China Electrotechnical Society, 32(10), 101-110
Year: 2017
Cited by: 6

Title: Modeling and assessing load redistribution attacks considering cyber vulnerabilities in power systems
Authors: X. Shi, H. Guo, W. Wang, B. Yin, Y. Cao
Journal: Frontiers in Energy Research, 11, 1242047
Year: 2023
Cited by: 3

Title: Perturbation estimation based nonlinear adaptive control of VSC flexible excitation system
Authors: N. Yang, Q. Zeng, X. Yin, W. Wang, P. Zeng, L. Jiang
Journal: IET Generation, Transmission & Distribution, 16(13), 2600-2611
Year: 2022
Cited by: 3

Title: 基于虚拟调速器的多端直流虚拟同步机控制策略
Authors: 王炜宇, 李勇, 曹一家, 李欣然
Journal: 中国电机工程学报, 38(12), 3461-3470
Year: 2018
Cited by: 3

Title: Intending island service restoration method with topology-powered directional traversal considering the uncertainty of distributed generations
Authors: C. Chen, Y. Wu, Y. Cao, S. Liu, Q. Tan, W. Wang
Journal: Frontiers in Energy Research, 9, 762491
Year: 2021
Cited by: 2

Conclusion

Dr. Weiyu Wang and collaborators makes significant contributions to the modeling, control, and stability enhancement of VSC-MTDC (Voltage Source Converter–based Multi-Terminal DC) systems and hybrid AC/DC power grids. Across high-impact IEEE journals and other reputable outlets, these studies address core challenges such as adaptive droop control, virtual synchronous generator strategies, low-frequency oscillation damping, and distributed cooperative control. More recent works extend into advanced frequency support for low-inertia grids, nonlinear observer-based control, and cyber-physical security in power systems. The research demonstrates both theoretical innovation and practical applicability, influencing modern grid stability and renewable integration. With multiple highly cited papers, this research portfolio plays a pivotal role in advancing power system resilience and flexibility in the era of decarbonization and increasing renewable penetration

Palaystint Thorng | Electronics | Best Researcher Award

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Mr.Palaystint Thorng |Electronics|Best ResearcherAward

Integrated Master’s and PhD Student,Jeonbuk National University , South Korea

Palaystint Thorng 📡 is a highly driven Integrated Master’s and PhD student at Jeonbuk National University 🇰🇷. Specializing in microwave circuit design and AI integration in RF systems 🤖📶, he is paving the way for smarter and more compact wireless communication technologies. His research combines hardware innovation with artificial intelligence, including the co-design of microwave amplifier–phase shifters for compact MIMO systems 📡📊 and AI-assisted digital predistortion (DPD) models to optimize power amplifier efficiency ⚡. As Chair of the IEEE MTT-S Student Branch Chapter at JBNU and a member of KIEES, he is actively contributing to the global scientific community 🌐. With a passion for interdisciplinary innovation and real-world impact, Thorng continues to push the boundaries of RF design by fusing traditional microwave engineering with cutting-edge AI techniques. He exemplifies the new wave of researchers committed to efficient, high-performance communication technologies 🚀📶.

Professional Profile

GOOGLE SCHOLAR

Education and Experience 

Palaystint Thorng 🎓 is pursuing an Integrated Master’s and PhD degree at Jeonbuk National University, South Korea 🇰🇷. His academic path focuses on advanced RF and microwave circuit design with applications in next-generation wireless systems 📡📲. Under the guidance of the Microwave Circuits Design Lab, he gained hands-on experience in S-parameter measurements, microwave amplifier-phase shifter co-design, and AI-based circuit optimization 🤖📊. Thorng’s key academic achievement includes a 2025 publication in Applied Sciences on compact MIMO RF systems. His real-world lab experience includes hardware implementation and signal testing, building a solid foundation in both analog and AI-assisted digital techniques. Though early in his career, his blend of engineering skills, AI literacy, and scientific rigor makes him a standout in emerging RF technologies. He is also an active IEEE student member and leads initiatives within the IEEE MTT-S Student Branch Chapter at JBNU, showcasing leadership and outreach potential 🌍📘.

Professional Development

Palaystint Thorng is committed to continuous professional development 🌱📚. As Chair of the IEEE MTT-S Student Branch Chapter at JBNU, he promotes academic networking and leadership 🧠🤝. He actively participates in international research collaborations through his affiliation with the Microwave Circuits Design Lab 🌐, and maintains student memberships in both IEEE and KIEES 📡. His publication in Applied Sciences (2025) highlights his capability to translate complex circuit co-design into practical applications 📘💡. Thorng’s work bridges AI and RF design, equipping him with both simulation and real-world prototyping skills 🧪⚡. His ambition to contribute to AI-assisted digital predistortion (DPD) places him at the forefront of RF circuit evolution 🔍🚀. With indexing for his research underway and collaborations expanding, he is well on track for a future as a thought leader in smart communication technologies 🌐📈.

Research Focus 

Palaystint Thorng’s research focus lies at the intersection of microwave circuit design, artificial intelligence, and RF system optimization 📡🤖. His expertise includes the co-design of integrated amplifier–phase shifters for MIMO systems, essential for compact and efficient wireless networks 📶🏗️. He is currently exploring AI-assisted digital predistortion (DPD) to improve high-power amplifier performance without compromising linearity—a crucial challenge in modern communication systems ⚡🧠. His hands-on lab work and AI modeling are contributing to the miniaturization and energy efficiency of RF front-end architectures 🔧🔋. Additional areas of interest include power dividers, combiners, and S-parameter characterization, reflecting a comprehensive grasp of RF hardware. His interdisciplinary approach—blending traditional engineering with data-driven modeling—marks a transformative contribution to the evolution of 5G and future wireless networks 🌐📲.

 Awards and Honors 

While Palaystint Thorng is in the early stages of his research career, he has already demonstrated significant promise worthy of recognition 🏆🌟. His recent publication in Applied Sciences (2025) signifies a major academic milestone 🧾, and he is actively contributing to innovations in RF system miniaturization and efficiency. As the Chair of the IEEE MTT-S Student Branch Chapter at Jeonbuk National University, he has shown strong leadership 🧑‍🏫💼. He also holds memberships in the IEEE and KIEES, aligning him with the top professional networks in electromagnetic and RF engineering 🌐📡. Though he has not yet received major industry awards, his track record and pioneering research in AI-assisted RF systems make him a top contender for future Research Excellence Awards, Early Career Researcher Prizes, and Microwave Innovation Awards 🥇🔍. His dedication, innovation, and interdisciplinary work set a strong foundation for global recognition in the field of geoscience and electrical engineering 🔬🌍.

Publication Top Notes

1. Multi-Functional Filtering Power Divider with Tunable Center Frequency and Isolator Functionality

Citation:
G. Chaudhary, P. Thorng, P. Pech, Y. Jeong
2024 54th European Microwave Conference (EuMC), pp. 164–167
Cited by: 1
📅 Year: 2024
🔍 Summary:
This work presents a novel multi-functional filtering power divider that offers tunable center frequency and built-in isolation between output ports. The design introduces dual-mode resonators and transmission zero control, enabling high isolation and selective frequency response, ideal for reconfigurable RF front-end systems.

2. Design of Quarter-Mode SIW Bandpass Filter with Ultra-Wide Stopband and Impedance Matching Functionality

Citation:
P. Pech, P. Thorng, G. Chaudhary, Y. Jeong
2025 IEEE MTT-S International Microwave Biomedical Conference (IMBioC), pp. 1–3
📅 Year: 2025
🔍 Summary:
This paper introduces a Quarter-Mode Substrate Integrated Waveguide (QMSIW) Bandpass Filter with a wide stopband and built-in impedance matching. The filter design improves out-of-band suppression, enhancing signal integrity in compact microwave biomedical devices.

3. Quasi-Elliptic Tunable Bandpass Filter with Controllable Transmission Zero Locations

Citation:
P. Thorng, G. Chaudhary, S. Kim, Y. Jeong
2025 IEEE MTT-S International Microwave Biomedical Conference (IMBioC), pp. 1–3
📅 Year: 2025
🔍 Summary:
Thorng leads this work presenting a quasi-elliptic bandpass filter with electrically tunable center frequency and dynamic transmission zero placement. This tunability provides sharp frequency selectivity and is ideal for adaptive RF systems in medical and wireless applications.

4. Frequency Tunable Filtering Power Divider with Arbitrary Power Division Ratio and Transmission Zeros

Citation:
G. Chaudhary, S. Kim, P. Thorng, Y. Jeong
2025 IEEE MTT-S International Microwave Biomedical Conference (IMBioC), pp. 1–3
📅 Year: 2025
🔍 Summary:
This publication demonstrates a tunable power divider capable of arbitrary power division ratios with sharp transmission zero control, suitable for next-generation MIMO systems and reconfigurable antennas in compact architectures.

5. A Design of Filtering Quasi-Circulator Using Time-Modulated Resonators

Citation:
G. Chaudhary, P. Pech, P. Thorng, Y. Jeong
2024 IEEE Asia-Pacific Microwave Conference (APMC), pp. 961–963
📅 Year: 2024
🔍 Summary:
This paper proposes a non-reciprocal quasi-circulator leveraging time-modulated resonators, enabling isolation and frequency selectivity in a compact topology. Thorng contributes to experimental validation and design enhancement for low-noise, duplex RF systems.

6. Design of SIW BPF Matching Network with Ultra-Wide Stopband and High Out-of-Band Signal Suppression

Citation:
P. Pech, P. Thorng, G. Chaudhary, Y. Jeong
2024 IEEE Asia-Pacific Microwave Conference (APMC), pp. 28–30
📅 Year: 2024
🔍 Summary:
This research presents a Substrate Integrated Waveguide (SIW) Bandpass Filter that doubles as a matching network, providing excellent stopband attenuation and minimal reflection loss for highly selective RF front-end filtering.

7. Arbitrary Power Division Ratio Multi-Functional Filtering Power Divider with Reciprocal and Non-Reciprocal Frequency Response

Citation:
G. Chaudhary, P. Thorng, S. Kim, P. Pech, Y. Jeong
📅 Year: 2025 (Pending final conference details)
🔍 Summary:
This work explores a power divider architecture with dual-mode functionality: reciprocal or non-reciprocal operation, ideal for directional signal routing. The design supports tunable frequency response, enhancing versatility for RF circuits in smart antennas and cognitive radios.

8. Unequal Termination Impedance 3 dB Branch Line Hybrid Coupler

Citation:
P. Thorng, S. Kim, P. Pech, G. Chaudhary, Y. Jeong
📅 Year: 2025 (Conference to be confirmed)
🔍 Summary:
Thorng leads this study focusing on a 3 dB hybrid coupler that accommodates unequal load conditions. This advancement is crucial for integrated RF systems that operate under asymmetric signal paths, providing robust performance in practical environments.

Conclusion

Palaystint Thorng is a strong candidate for the Best Researcher Award in the field of Electrical and Electronic Engineering, particularly RF/Microwave and AI-integrated systems. His early-career momentum, publication record, and leadership activities clearly position him as a rising star in academic research. His work directly addresses real-world engineering problems in 5G/6G communications, making him not only academically impactful but also practically relevant.