Seyedrasoul Nabavian | Civil | Best Researcher Award

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Assist. Prof. Dr. Seyedrasoul Nabavian | Civil | Best Researcher Award

Assist. Prof. Dr. Seyedrasoul Nabavian | Civil – Ayatollah Boroujeri University, Iran

Dr. Seyedrasoul Nabavian is an emerging scholar in the field of civil engineering with a developing academic track record in structural health monitoring and fracture mechanics. Currently serving as an Assistant Professor of Civil Engineering at Ayatollah Boroujerdi University, he has demonstrated a strong commitment to advancing knowledge in structural dynamics, particularly through innovative output-only modal identification techniques and sustainable material research. His contributions, though modest in scale at this stage of his career, display focused rigor, collaboration, and technical depth, positioning him as a researcher with high potential in both academic and applied engineering domains.

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Education:

Dr. Nabavian received his academic training in civil and structural engineering, with advanced studies focusing on structural mechanics, space structures, and material behavior under dynamic and environmental stressors. Through his postgraduate education, he developed a foundational interest in experimental and analytical methods for diagnosing structural performance, leading to his ongoing work in monitoring systems and advanced concrete technologies.

Experience:

Professionally, Dr. Nabavian has worked in both academic and collaborative research environments, partnering with national and international researchers to contribute to ongoing challenges in structural reliability and monitoring. His academic appointments have enabled him to teach courses in structural engineering, supervise students, and contribute to institutional research projects. Moreover, his participation in interdisciplinary teams involving experimental mechanics and computational analysis has strengthened his methodological base and research versatility.

Research Interests:

His research interests are concentrated in structural identification and monitoring, fracture mechanics, and sustainable construction materials. Specifically, he investigates output-only techniques for modal identification, noise effects on signal processing in structures, and fracture behavior in recycled aggregate concrete enhanced with nanomaterials or subjected to extreme conditions. These interests reflect a critical alignment with global trends toward smart infrastructure, resilient design, and environmental sustainability in civil engineering.

Awards:

While specific awards or honors are not listed in the current data, Dr. Nabavian’s collaborative research output and publication record in indexed journals demonstrate recognition within the academic community. His work has been cited across a range of publications, and he has contributed to the growing body of knowledge in non-invasive structural monitoring and advanced material modeling. As he continues to build his citation metrics and publication footprint, he is well-positioned to be recognized through future awards focused on early-career researchers or interdisciplinary contributions.

Publications:

📌 “Determining minimum number of required accelerometers for output-only structural identification of frames”
arXiv, 2020 – Cited by 4
A foundational study proposing optimal sensor placement strategies for structural monitoring.
🔍 “Effect of noise on output-only modal identification of beams”
arXiv, 2020 – Cited by 3
Explores how noise affects the accuracy of modal properties in beams.
🧪 “Output-only modal analysis of a beam via frequency domain decomposition method using noisy data”
International Journal of Engineering, 2019 – Cited by 3
Improves reliability in modal analysis using frequency-based techniques with noisy datasets.
♻️ “Fracture characteristics of recycled aggregate concrete using work-of-fracture and size effect methods: the effect of water to cement ratio”
Archives of Civil and Mechanical Engineering, 2023 – Cited by 3
Focuses on sustainable construction through recycled materials and mechanical modeling.
🌱 “Influence of nano‐silica particles on fracture features of recycled aggregate concrete using boundary effect method”
Structural Concrete, 2024 – Cited by 1
Investigates how nano-silica improves recycled concrete using experimental fracture testing.
🎯 “Damping estimation of a double-layer grid by output-only modal identification”
Scientia Iranica, 2021 – Cited by 1
Analyzes structural damping through output-only techniques applied to spatial grids.
🏗️ “Output-only Structural Identification of a Double-layer Grid with Ball Joint System”
Modares Civil Engineering Journal, 2026 – Not yet cited
Recent publication addressing modal identification in jointed structural frameworks.

Conclusion:

In conclusion, Dr. Seyedrasoul Nabavian represents a promising academic with solid technical grounding and a growing portfolio of peer-reviewed research. His contributions, although currently at an early career stage in terms of citations and publication scale, are impactful in terms of methodology and societal relevance. His dedication to structural monitoring, sustainability, and experimental mechanics underscores a thoughtful research agenda that addresses both immediate engineering challenges and long-term infrastructure needs. With continued support and recognition, he is expected to expand his research reach and strengthen his role in the international civil engineering research community.

 

 

 

Yuanyuan Xu | Engineering | Best Researcher Award

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Prof. Yuanyuan Xu | Engineering | Best Researcher Award

Prof. Yuanyuan Xu | Engineering – Guangdong Ocean University, China

Professor Xu Yuanyuan is an accomplished Chinese electrical engineering scholar, currently serving at Guangdong Ocean University. Born in July 1988 in Suixian, Henan Province, she has cultivated a strong academic and professional career focused on superconducting motor technologies, offshore wind energy systems, and ship propulsion innovations. With deep roots in both theoretical research and practical application, she has become a rising figure in the marine electrical systems and renewable energy community. Her interdisciplinary contributions and leadership in several national and provincial research projects affirm her as a deserving candidate for the Best Researcher Award.

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Education:

Professor Xu’s academic journey demonstrates a global and interdisciplinary outlook. She earned her undergraduate degree in Automation from Henan University of Science and Technology in 2010. Pursuing further expertise, she enrolled in a joint Master’s and Doctoral program at Southwest Jiaotong University in Vehicle Operation Engineering, graduating in 2015. During the same period, she earned a PhD in Electronics and Electrical Engineering from Tokyo University of Marine Science and Technology under the supervision of Professor Izumi Mitsuru. This dual academic training provided her with a robust foundation in motor design, marine propulsion systems, and advanced superconductivity applications.

Experience:

Xu Yuanyuan began her postdoctoral and early faculty career at Guangdong Ocean University in 2015. Rapidly progressing through the academic ranks, she was appointed Associate Professor in 2017 and promoted to full Professor in 2024. Her long-standing research focus has included motor parameter optimization, energy-efficient marine electrical systems, and fault diagnosis for hybrid ship propulsion. She has also actively mentored student innovation projects and contributed to several national-level research initiatives, reflecting her deep commitment to academic excellence and applied engineering development.

Research Interests:

Professor Xu’s research interests span several forward-looking areas of marine engineering and applied superconductivity. Her core focus lies in:

  • Ship control system monitoring and performance optimization

  • Motor design and optimization for marine applications

  • Control strategies for ship hybrid electric propulsion systems

  • Intelligent control of ship operations

Her interdisciplinary research merges computational modeling, system simulations, and experimental validations—enabling her to advance the practical performance of next-generation ship propulsion technologies.

Awards:

Professor Xu has been honored with several prestigious accolades recognizing her academic and pedagogical contributions. Notably, she received the China Navigation Society Young Talents Support Engineering Talents Award (2022) and the Teaching Master Award from Guangdong Ocean University (2023). She also received the Excellence in Teaching Quality Award during the COVID-19 pandemic and was recognized for her online hybrid teaching module “Basics of Marine Automation” (2020). Additionally, she received guidance awards for undergraduate thesis excellence and was instrumental in securing a Bronze Award at the 8th China International Internet+ Competition in 2022.

Publications:

  1. 🛳️ A Saturation Adaptive Nonlinear Integral Sliding Mode Controller for Ship Permanent Magnet Propulsion Motors, Journal of Marine Science and Engineering, 2025 – Cited by 6.
  2. ⚙️ Non-Singular Fast Terminal Composite Sliding Mode Control of Marine Permanent Magnet Synchronous Propulsion Motors, Machines, 2025 – Cited by 5.
  3. 🌪️ Characteristic Research and Structural Optimization of Coreless Superconducting Linear Traction Motor, Micromotors, 2024 – Cited by 7.
  4. 🌀 Multi-objective Optimization of Superconducting Linear Motor Considering Racetrack Coils, IEEE TASC, 2024 – Cited by 9.
  5. 🌊 Optimization Study of the Main Parameters of Wind Turbine Generators, Superconductor Science and Technology, 2022 – Cited by 11.
  6. ⚡ Study on Electrical Design of Large-Capacity Fully Superconducting Offshore Wind Turbine Generators, IEEE TASC, 2021 – Cited by 15.
  7. 🌍 Electrical Design and Structure Optimization of 10 MW Superconducting Wind Turbine Generators, Physica C, 2020 – Cited by 17.

Conclusion:

Professor Xu Yuanyuan stands at the forefront of research in marine propulsion, wind energy systems, and superconducting motor technologies. Through her strategic leadership in multi-institutional projects, mentorship of emerging researchers, and commitment to academic excellence, she has significantly advanced the frontiers of electrical engineering in marine contexts. Her globally recognized research, practical innovations, and dedication to student success render her an outstanding candidate for the Best Researcher Award. Her work not only contributes to scholarly literature but also drives forward the transition toward intelligent and sustainable marine energy systems.