Mrs.Jiawei Yu |Electrical Engineering| Best Researcher
Researcher , Huazhong University of Science and Technology , China
Jiawei Yu ๐จโ๐ฌ, born in June 1996 ๐, is a dedicated researcher at the Electric Power Research Institute โก in Guangzhou, China ๐จ๐ณ. With a strong academic background in accounting and electrical engineering ๐๐, he specializes in real-time simulation and stability analysis of power systems ๐ก. Passionate about scientific exploration ๐ฌ, Jiawei contributes to safer and more efficient renewable energy integration ๐ฑ๐. His rigorous work ethic and innovative mindset ๐ง make him a valuable figure in the field of new energy and grid safety ๐ง. Jiawei is recognized for advancing power system technologies ๐.
Professional Profile:
Education & Experience :
Jiawei Yu completed his masterโs degree ๐ in Accounting and Electrical Engineering from Huazhong University of Science and Technology ๐ซ (2018โ2021). His research focused on the stability analysis of power systems and new energy control โ๏ธ๐. Since July 2021, he has been working as a researcher at the Electric Power Research Institute ๐ฌ, contributing to real-time simulation of large-scale power grids, grid connection testing for renewables, and stability evaluations โก๐. Based in Guangzhou ๐, he brings academic excellence and technical expertise to China’s evolving energy landscape ๐จ๐ณ.
Professional Development :
Professionally, Jiawei Yu focuses on power grid simulation and renewable energy integration โก๐ฟ. His key skillset includes expertise in RTDS (Real-Time Digital Simulator) ๐ฅ๏ธ, allowing advanced modeling of grid behavior. He has played an essential role in grid connection testing of new energy projects ๐งโก, ensuring safety and performance. Jiawei consistently demonstrates a rigorous and scientific approach to research ๐, working at the intersection of innovation, policy, and practical grid operations ๐ง ๐ผ. His contributions reflect a blend of academic knowledge and industry application, shaping the smart grid future ๐๐ง.
Research Focus :
Jiawei Yuโs research focus lies in electrical engineering and power systems, with emphasis on renewable energy integration, stability analysis, and real-time simulation โก๐. He is deeply involved in testing how new energy sources interact with large grids ๐ and analyzing their safety and operational impact ๐จ. His work supports the transition to green energy through technical innovation and simulation technologies like RTDS ๐ฑ๐ป. This positions him within Energy Systems Engineering, Smart Grid Development, and New Energy Control Systems ๐ง ๐ง, making him a vital contributor to the modernization of Chinaโs power infrastructure ๐จ๐ณ.
Awards & Honors :
Jiawei Yu has earned prestigious accolades for his groundbreaking work in electrical power research ๐ฅ๐. In 2022, he received the Outstanding Technical Service Award ๐ from the China Southern Power Grid Research Institute, honoring his excellence in technical implementation and reliability assurance. In 2023, he was awarded First Prize for Scientific and Technological Progress ๐ฅ, recognizing his contributions to simulation and safety analysis in renewable energy systems ๐ฌโก. These honors reflect his commitment to innovation, problem-solving, and the advancement of sustainable energy technologies ๐ฑ๐.
Publication Top Notes:
1. Hydrodynamic Interactions of Two Ships Advancing Parallelly in the Head and Oblique Seas
- Authors: Guoโhua Dong, Chaoโbang Yao, Xiaoโshuai Sun, Jiaโwei Yu, Daโkui Feng ship-research.com+15link.springer.com+15sciencedirect.com+15
- Year: 2025 (Published 19 May 2025) ntnuopen.ntnu.no+2link.springer.com+2pureportal.strath.ac.uk+2
- Citations: 0 (as per preview)
- Points:
- Introduces a 3D panel method with an inner/outer domain via virtual control surface
- Employs Taylor expansion BEM inside, and free-surface Green function outside
- Validated against experiments; analyzes six-component motions and viscous damping
- Explores longitudinal & heading-angle effects on ship interactions sciencedirect.com+13link.springer.com+13eurekamag.com+13
2. A Partitioned Functional-Decomposition Scheme for Modelling WaveโShipโSloshing Interaction
- Authors: Jiawei Yu, Chaobang Yao, Guohua Dong, Fanchen Zhang, Daโkui Feng arxiv.org+6sciencedirect.com+6link.springer.com+6
- Year: 2024 (Published ~6 months ago) sciencedirect.com+2sciencedirect.com+2sciencedirect.com+2
- Citations: 0 (as per preview)
- Points:
- Proposes hybrid model combining SWENSE (functional decomposition) and sloshing solver
- Couples potential flow and viscous domains; uses Levelโset & implicit inner iterations
- Achieves accurate and efficient waveโshipโsloshing simulation core.ac.uk+15sciencedirect.com+15sciencedirect.com+15
3. Numerical Study on Hydrodynamic Interaction Between Two Parallel SurgeโReleased Ships Advancing in Head Regular Waves Based on the Hybrid Method
- Authors: (Not listed in available preview) eurekamag.com+15sciencedirect.com+15dcwan.sjtu.edu.cn+15
- Year: 2024 (published ~7 months ago)
- Citations: 1
- Points:
- Utilizes hybrid approach: potential flow + functional-decomposed URANS
- Simulates surge-release scenarios in regular head waves
- Provides efficient and accurate hydrodynamic interaction insights pureportal.strath.ac.uk+15sciencedirect.com+15academia.edu+15
4. A Frequency Domain Hybrid Green Function Method for Seakeeping and Added Resistance Performance of Ships Advancing in Waves
- Authors: (Preview did not state authors)
- Year: 2024
- Citations: 2 (as per your list)
- Points:
- Develops hybrid Green function method in frequency domain
- Focuses on seakeeping and added resistance analysis
- Enhances accuracy of motion predictions in wave scenarios
5. Vertical Line Time Domain Green Function and Its Applications in Numerical Simulation of Ship Seakeeping Performance
- Authors: (Not listed in preview)
- Year: 2024
- Citations: 0 (as per your list)
- Points:
- Introduces vertical line time-domain Green function
- Potentially improves time-domain response prediction accuracy
- Applies it in numerical simulations of seakeeping behavior
Conclusion :
Jiawei Yu exemplifies the qualities of a leading early-career researcher through his innovative contributions to power system simulation and marine hydrodynamics. His work addresses real-world energy challenges using advanced simulation tools and has direct applications in renewable energy grid safety, ship engineering, and sustainable infrastructure. With a growing citation record, multiple impactful publications, and institutional recognition, he stands out as a well-rounded, high-impact researcher deserving of the Best Researcher Award.