Jinzhao Li | Civil Engineering | Best Researcher Award

Dr. Jinzhao Li | Civil Engineering | Best Researcher Award

Associated Researcher at Hunan University, China

Jinzhao Li is a dynamic researcher 🧠 specializing in intelligent construction within civil engineering, currently serving as an Associate Researcher at Hunan University. With a keen focus on AI-infused methods and hydrodynamics, Li has contributed extensively to national infrastructure projects, including the Hong Kong-Zhuhai-Macao Bridge 🌉. His academic collaborations span globally renowned institutions such as TU Denmark 🇩🇰, Delft University 🇳🇱, and the University of Tokyo 🇯🇵. With over 50 research publications—including one in Nature Communications Engineering—more than 10 patents, and numerous funded projects, his work blends deep learning, computer vision, and fluid mechanics. Recognized with awards like the Silver Medal 🥈 in the Hunan Postdoctoral Innovation Competition and the China Railway Society Science and Technology Prize, Li exemplifies scientific excellence. His dedication to smart infrastructure and sustainable construction makes him a pivotal contributor to future-ready civil engineering. 🚀

Professional Profile 

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🎓 Education

Jinzhao Li’s academic journey reflects a powerful blend of engineering rigor and global exposure 🌍. He earned his Bachelor’s degree in Traffic Engineering from Shandong University of Science and Technology (2007–2011), followed by a Ph.D. in Bridge and Tunnel Engineering at Beijing Jiaotong University (2011–2017), under an integrated Master–Ph.D. program. His doctoral work, under the mentorship of Professor Meilan Qi, provided the foundation for his specialization in bridge hydrodynamics and scour processes. To further internationalize his research acumen, he completed joint training at the Technical University of Denmark 🇩🇰, working closely with Professor David R. Fuhrman—an authority in applied ocean research. These cross-continental educational experiences deeply influenced his multi-disciplinary expertise in wave mechanics, AI applications in structural monitoring, and deep-learning physics modeling. 📚 His education solidified not only technical knowledge but also his global research mindset, setting the stage for a versatile, high-impact scientific career. 📖🧠

💼 Professional Experience

Jinzhao Li’s professional path traverses academia, research institutes, and high-impact engineering projects 🏗️. Starting as an Assistant Researcher at the Tianjin Research Institute of Water Transport Engineering (2018–2019), he contributed to national megaprojects like the Shenzhen-Zhongshan Passage and floating tunnel studies. His transition to academia led to a Lecturer role at Shandong University of Science and Technology (2019–2020), where he also served as Deputy Head of Department. Since 2020, he has been advancing frontier research as a Postdoctoral Fellow and now as an Associate Researcher at Hunan University. 🚀 Under collaborative mentorship with National Youth Thousand Talents Professor Xuan Kong, Li steers projects integrating AI, computer vision, and coastal engineering. His work reflects a harmonious blend of theory and fieldwork, evident in his involvement with hydrodynamic model testing, drone-based monitoring systems, and AI-driven structural health diagnostics. 📡 His professional versatility makes him a cornerstone in smart infrastructure R&D.

🧠 Research Interests

Jinzhao Li’s research interests are a fusion of artificial intelligence and civil engineering phenomena 💡. He pioneers in AI intelligent computing, integrating physics-driven deep learning to model real-world complexities such as wave-structure interaction and scour evolution. His work in computer vision-based flow measurement enables high-fidelity monitoring of structural dynamics, especially in disaster-prone flood zones 🌊. As part of his broader vision, he also delves into intelligent fluid dynamics, bridging fluid simulation with machine learning to advance structural resilience. His studies on bridge hydrodynamics and scouring have practical implications for coastal infrastructure safety, while his exploration of flood disaster monitoring employs drones and optical flow algorithms. 📹🔍 Blending neural networks with marine physics, Li pushes the boundary of what intelligent infrastructure can achieve. His focus aligns with smart, sustainable, and responsive design systems—a true intersection of digital intelligence and environmental engineering. 🌐

🏆 Awards and Honors

Jinzhao Li has earned prestigious accolades recognizing both his innovative spirit and technical prowess 🥇. Notably, he was selected for the “Hunan Province Outstanding Postdoctoral Innovation Talent Program”, affirming his place among China’s rising scientific leaders. He secured the Silver Award 🥈 in the First Hunan Postdoctoral Innovation and Entrepreneurship Competition, spotlighting his blend of applied and entrepreneurial science. His technical contributions were further recognized through the China Railway Society Science and Technology Second Prize, a high honor in engineering innovation. Internationally active, Li has served as Guest Editor for the SCI journal Sustainability and is a regular reviewer for top-tier SCI journals. His papers—some co-authored with world-class scientists—have garnered over 900 citations and an H-index of 16, confirming his scientific impact 📊. These honors echo his exceptional integration of AI, hydrodynamics, and vision-based civil engineering.

📚 Publications Top Note 

1. Physics‑preserved graph learning of differential equations for structural dynamics

Authors: (Not specified in search snippet)
Year: 2025
Citations: 0 (appears recent)
Source: Mechanical Systems and Signal Processing
Summary:
This study introduces a novel graph-based learning framework that incorporates the underlying partial differential equations (PDEs) governing structural dynamics directly into the model. By encoding displacement, velocity, and energy dissipation processes via conservation laws within a graph neural network, the model can predict structural responses while adhering to physical laws. It aims to combine data-driven flexibility with physics-based constraints for improved interpretability and generalization under dynamic loads. The approach shows promising accuracy on simulated structural dynamic scenarios.


2. Vehicle Response‑Based Bridge Modal Identification Using Different Time‑Frequency Analysis Methods

Authors: (Not specified in snippet)
Year: 2025
Citations: 5
Source: International Journal of Structural Stability and Dynamics
Summary:
This paper proposes a method leveraging a moving vehicle’s response to identify bridge modal frequencies and mode shapes. It combines Empirical Mode Decomposition (EMD) with advanced time–frequency analysis (e.g. wavelets) to isolate bridge signature from vehicle–track–bridge interactions. Field and simulation results show that this hybrid approach enhances modal identification performance, improving accuracy even amid road surface noise and vehicle dynamics.


3. Full‑field modal identification of cables based on subpixel edge detection and dual matching tracking method

Authors: Jinxin Yi, Xuan Kong, et al.
Year: 2025
Citations: 0
Source: Mechanical Systems and Signal Processing
Summary:
This research introduces a computer vision‑based framework for extracting full‑field cable modal properties in cable-stayed bridges. By applying subpixel edge detection via LSD (Line Segment Detector) on video footage, followed by a dual-matching tracking algorithm, the method captures dense dynamic displacement data. It then derives modal frequencies and employs frequency differences to compute cable tension, avoiding preset tuning parameters. Verified with laboratory and field tests, the approach is robust and accurate.

Conclusion 

In summation, Jinzhao Li stands as a visionary in civil and computational engineering—a scientist bridging traditional hydrodynamics with cutting-edge artificial intelligence 🤖🌊. His career is marked by international collaborations, impactful research outputs, and real-world applications in infrastructure monitoring, disaster prediction, and intelligent design. From postdoctoral recognition in Hunan to Nature-Communications-level publications, his work exemplifies future-focused engineering with societal relevance. Whether optimizing bridge scour prediction through computer vision or leading drone-based flood warning systems, Li’s contributions embody the shift toward data-driven, smart construction ecosystems 🏗️📈. With more than 50 academic publications, 10+ patents, and a robust portfolio of funded research, he is a deserving candidate for elite research honors and fellowships. As AI and civil engineering continue to converge, Jinzhao Li is set to be a torchbearer of the next-generation engineering renaissance. 🌍🔬

Morteza Khorami | Engineering | Best Researcher Award

Assoc. Prof. Dr. Morteza Khorami | Engineering | Best Researcher Award

Associate Professor at Coventry University, United Kingdom

Morteza Khorami 🎓 is a distinguished civil engineer and academic at Coventry University, specializing in structural engineering, sustainable construction materials, and reinforced concrete. With over 20 years of experience 🏗️, he has led research projects on innovative cement composites and green building materials. As a Chartered Engineer (CEng) and Senior Fellow of the Higher Education Academy (SFHEA) 🎖️, he has contributed significantly to academia through teaching, mentoring, and publishing in high-impact journals. His expertise in project management and material innovation makes him a key figure in sustainable infrastructure development. 🌍🏢

Professional Profile:

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Education & Experience

📚 Education:

💼 Experience:

  • Professor at Coventry University (2015 – Present) 📖🏗️

    • Conducts lectures and supervises research in structural engineering and construction materials.

    • Leads research on innovative materials for sustainable construction.

    • Publishes in high-impact journals and presents at international conferences.

    • Mentors postgraduate students in thesis development and engineering methodologies.

Professional Development

Morteza Khorami is a leading researcher in sustainable construction materials 🏗️🌱, focusing on reinforced concrete, cement composites, and eco-friendly building technologies. As a Chartered Engineer (CEng) 🎖️ and Senior Fellow of the Higher Education Academy (SFHEA) 🏅, he actively promotes innovation in civil engineering. He collaborates with global researchers to advance construction methodologies 🌍 and enhance material durability. His passion for teaching and mentorship 👨‍🏫 has influenced many students in academia and industry. With extensive project management expertise 📊, he integrates cutting-edge research into practical engineering solutions for sustainable infrastructure. 🏢🔬

Research Focus

Morteza Khorami’s research focuses on sustainable and innovative materials in civil engineering 🏗️🌿. His studies explore reinforced concrete durability, cement composites, and eco-friendly alternatives such as waste-based construction materials. He has conducted extensive research on fiber-reinforced cement boards, geopolymer mortars, and corrosion-resistant structures 🔬⚙️. His work contributes to reducing carbon footprints in construction by utilizing materials like scrap tires, bagasse fibers, and nano silica fume 🌎♻️. Through his research, he aims to improve structural resilience and sustainability, making a lasting impact on the construction industry. 🏛️🔍

Awards & Honors

🏅 Chartered Engineer (CEng) – Recognized for professional excellence in engineering.
🎖️ Senior Fellow of the Higher Education Academy (SFHEA) – Prestigious recognition in academia.
🏆 Published over 18 high-impact research papers in leading international journals.
📚 Authored multiple books and book chapters on structural engineering and materials science.
🌍 Presented research at international conferences, influencing global construction methodologies.

Publication Top Notes

  1. Effect of Low-Grade Calcined Clay on the Durability Performance of Blended Cement Mortar

    • Journal: Buildings

    • Publication Date: April 2, 2025

    • DOI: 10.3390/buildings15071159

    • Summary: This study investigates how incorporating low-grade calcined clay influences the durability of blended cement mortar. The research focuses on properties such as compressive strength, porosity, and resistance to chloride penetration.

  2. Performance of Calcined Impure Kaolinitic Clay as a Partial Substitute for Portland Cement Concrete: A Review

    • Journal: Journal of Composites Science

    • Publication Date: March 21, 2025

    • DOI: 10.3390/jcs9040145

    • Summary: This review examines the viability of using calcined impure kaolinitic clay as a partial replacement for Portland cement. It evaluates the material’s impact on mechanical properties, durability, and environmental benefits.

  3. Behaviour of Reinforced Concrete Beams Subjected to Corrosion Damage Under Cyclic Loading

    • Journal: Proceedings of the Institution of Civil Engineers – Structures and Buildings

    • Publication Date: March 7, 2025

    • DOI: 10.1680/jstbu.24.00104

    • Summary: This paper explores how corrosion damage affects the performance of reinforced concrete beams under cyclic loading conditions, focusing on changes in load-bearing capacity and structural integrity.

  4. Development of Fiber Cement Boards Using Recycled Jute Fibers for Building Applications

    • Journal: Journal of Materials in Civil Engineering

    • Publication Date: January 2025

    • DOI: 10.1061/JMCEE7.MTENG-18084

    • Summary: This research focuses on creating fiber cement boards incorporating recycled jute fibers, assessing their mechanical properties, durability, and potential for sustainable building applications.

  5. Assessment of the Mechanical and Microstructural Performance of Waste Kraft Fibre Reinforced Cement Composite Incorporating Sustainable Eco-Friendly Additives

    • Journal: Buildings

    • Publication Date: August 30, 2024

    • DOI: 10.3390/buildings14092725

    • Summary: This study evaluates the mechanical and microstructural properties of cement composites reinforced with waste kraft fibers and sustainable additives, aiming to enhance performance while promoting eco-friendly construction materials.

Conclusion

Dr. Morteza Khorami’s outstanding contributions to structural engineering, sustainable materials research, and academic leadership make him a highly deserving candidate for the Best Researcher Award. His work has not only advanced scientific knowledge but has also had practical applications in the construction industry, promoting sustainability and innovation.

Sahar Ghatrehsamani | Engineering | Best Scholar Award

Dr. Sahar Ghatrehsamani | Engineering | Best Scholar Award

Postdoctoral at Isfahan University of Technology, Iran

Dr. Sahar Ghatrehsamani is a passionate mechanical engineer specializing in tribology, with a strong background in machine learning and surface engineering. She earned her Ph.D. in Mechanical Engineering from Isfahan University of Technology (IUT), Iran (2022) and is currently a postdoctoral researcher at IUT, applying AI techniques to predict the tribological behavior of agricultural machinery. With expertise in CAD, FEA, and statistical analysis, she has contributed significantly to teaching, research, and mentoring students. Her work intersects materials science, additive manufacturing, and precision agriculture, making her a versatile and innovative researcher. 🌍🔬

Professional Profile:

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Education & Experience

📚 Education:

  • 🎓 Ph.D. in Mechanical Engineering (Tribology) – Isfahan University of Technology, Iran (2017-2022)

  • 🎓 M.Sc. in Mechanical Engineering (Tribology) – Isfahan University of Technology, Iran (2015-2017)

  • 🎓 B.Sc. in Mechanical Engineering (Biosystem) – Shahrekord University, Iran (2009-2013)

🔬 Experience:

  • 🔍 Postdoctoral Researcher – Isfahan University of Technology, Iran (2024-Present)

  • 👩‍🏫 Teaching Experience – Multiple undergraduate courses in mechanical engineering at IUT (2018-Present)

  • 🤝 Co-Advisor – 2 Master’s & 6 Bachelor’s students

Professional Development

Dr. Sahar Ghatrehsamani is dedicated to research, teaching, and innovation in mechanical engineering, particularly in tribology, surface engineering, and AI-driven modeling. She has actively mentored students, guided research projects, and developed expertise in CAD, numerical simulation, and data analysis. Her teaching career at Isfahan University of Technology spans multiple engineering courses, and she has consistently ranked highly in teaching evaluations. Passionate about bridging the gap between mechanical engineering and materials science, she explores new technologies in additive manufacturing and precision agriculture to enhance sustainability and performance. 🚜🛠️

Research Focus

Dr. Sahar Ghatrehsamani’s research spans multiple engineering domains, focusing on:

  • 🏎️ Tribology – Studying friction, wear, and lubrication for various applications

  • 🏭 Surface Engineering – Enhancing material properties for durability and efficiency

  • 🤖 Machine Learning & AI – Applying predictive modeling in tribological behavior and material design

  • 🏗 Mechanical Behavior of Materials – Understanding stress, strain, and failure mechanics

  • 🚜 Precision Agriculture – Developing efficient and smart agricultural machinery

  • 🖨️ Additive Manufacturing – Investigating 3D printing & advanced manufacturing

  • 📊 Data Analysis & Numerical Modeling – Integrating simulation techniques for engineering solutions

Awards & Honors

Teaching Excellence:

  • 🎖️ Ranked 1st in Mechanical Engineering Group (2021)

  • 🏅 Ranked 2nd in College of Engineering (2021)

  • 🏆 Ranked 13th among 569 faculty members at IUT (2021)

Research Contributions:

  • 📜 Published multiple high-impact research papers in tribology and AI modeling

  • 🌍 Contributed to international collaborations in mechanical engineering research

🚀 Her dedication to education, research, and innovation has established her as a rising expert in tribology and machine learning!

Publication Top Notes

  1. On the running-in nature of metallic tribo-components: A review

    • Authors: M.M. Khonsari, S. Ghatrehsamani, S. Akbarzadeh

    • Journal: Wear (Vol. 474, 2021)

    • Citations: 113

    • Summary: A comprehensive review of the running-in phase in metallic tribo-systems, examining the changes in friction, wear, and surface topography over time.

  2. Experimentally verified prediction of friction coefficient and wear rate during running-in dry contact

    • Authors: S. Ghatrehsamani, S. Akbarzadeh, M.M. Khonsari

    • Journal: Tribology International (Vol. 170, 2022)

    • Citations: 41

    • Summary: Experimental validation of predictive models for friction and wear rate during the running-in phase under dry contact conditions.

  3. Experimental and numerical study of the running-in wear coefficient during dry sliding contact

    • Authors: S. Ghatrehsamani, S. Akbarzadeh, M.M. Khonsari

    • Journal: Surface Topography: Metrology and Properties (Vol. 9, Issue 1, 2021)

    • Citations: 25

    • Summary: Investigates the wear coefficient during dry sliding contact using both experimental methods and numerical simulations.

  4. Predicting the wear coefficient and friction coefficient in dry point contact using continuum damage mechanics

    • Authors: S. Ghatrehsamani, S. Akbarzadeh

    • Journal: Proceedings of the Institution of Mechanical Engineers, Part J: Journal of Engineering Tribology (2019)

    • Citations: 23

    • Summary: Develops a predictive framework for wear and friction coefficients in dry point contact using continuum damage mechanics.

  5. Application of continuum damage mechanics to predict wear in systems subjected to variable loading

    • Authors: S. Ghatrehsamani, S. Akbarzadeh, M.M. Khonsari

    • Journal: Tribology Letters (Vol. 69, 2021)

    • Citations: 15

    • Summary: Extends continuum damage mechanics principles to predict wear in tribological systems under varying load conditions.

Conclusion

Sahar Ghatrehsamani is a strong candidate for the Best Scholar Award. Her contributions to tribology, AI-driven material predictions, and mechanical behavior research are significant. She excels in both academic and applied research, making notable interdisciplinary advancements. Given her teaching excellence, mentorship, and research output, she is highly deserving of recognition as a leading researcher in her field.

Yang Liu | Thermal Fluids | Best Researcher Award

Assist. Prof. Dr. Yang Liu | Thermal Fluids | Best Researcher Award

Assistant Professor at City College of New York, United States

Dr. Yang Liu is an Assistant Professor of Mechanical Engineering at The City College of New York 🏛️. He earned his Ph.D. in Aerospace Engineering from Iowa State University in 2016 🎓 and a B.S. from Beihang University in 2011. His research focuses on multiphase flow, heat transfer in additive manufacturing, high-speed interactions, and anti-/de-icing technologies ❄️🔥. Dr. Liu has published a book, two book chapters, 40+ journal papers, and 60+ conference papers 📚. He has secured multiple research grants, including funding from NSF and DOE 💰. His expertise extends to energy devices, aircraft icing, and flow-structure interactions ✈️.

Professional Profile

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Education & Experience 🎓💼

  • Ph.D. in Aerospace Engineering – Iowa State University (2016) 🎓
  • B.S. in Aerospace Engineering – Beihang University (2011) 🏫
  • Assistant Professor – The City College of New York (Present) 🏛️
  • Researcher in Multiphase Flow & Thermal Fluids 🌊🔥
  • Principal Investigator (PI) & Co-PI on multiple NSF, DOE, and NIH projects 💡

Professional Development 🚀

Dr. Liu is actively engaged in cutting-edge research in multiphase flow, energy systems, and additive manufacturing 🌊🔬. He has collaborated with leading institutions and industries to develop innovative de-icing technologies, inkjet printing processes, and carbon capture techniques ❄️🖨️🌱. His projects have been funded by prestigious organizations, including the NSF, DOE, and NIH 💰. He mentors students and researchers, shaping the next generation of engineers 👨‍🏫. With a strong publication record 📖 and multiple funded projects, Dr. Liu’s work bridges fundamental science and real-world applications, making impactful contributions to aerospace and thermal sciences ✈️🔥.

Research Focus 🔬💡

Dr. Liu’s research spans thermal fluids and multiphase flow dynamics, with applications in aerospace, energy, and manufacturing ✈️⚡🛠️. His studies on droplet interactions with plasma discharge contribute to aircraft icing mitigation ❄️⚡. He explores inkjet 3D printing with freezing-based methods, advancing additive manufacturing 📄🖨️. His work in direct carbon capture technologies addresses climate change challenges 🌱. Dr. Liu also investigates bio-inspired anti-icing coatings, improving surface durability and energy efficiency 🦠❄️. His expertise in compressible flow and flow-structure interactions aids in high-speed aerodynamics research, benefiting aircraft and space vehicle development 🚀.

Awards & Honors 🏆🎖️

  • NSF, DOE, and NIH Research Grants – Multiple awards totaling over $2.1 million 💰
  • Global Particle Physics Excellence Award 🏅
  • PSC-CUNY Research Award for Anti-Icing Research ❄️🔬
  • GRTI Award for Advanced Laser-Optic Thermal-Flow Diagnostics 🔥📡
  • CiPASS Program Award for Spray-Based Carbon Capture Research 🌱💨
  • ASRC Collaborative Seed Grant for Bio-Inspired Anti-/De-Icing Surfaces 🦠❄️
  • NIH STTR Award for Peripheral Arterial Disease Diagnostics 💉🏥

Publication Top Notes

  1. Title: An experimental study of rain erosion effects on a hydro-/ice-phobic coating pertinent to Unmanned-Arial-System (UAS) inflight icing mitigation

  2. Title: An experimental study on different plasma actuator layouts for aircraft icing mitigation

  3. Title: An exploratory study on using Slippery-Liquid-Infused-Porous-Surface (SLIPS) for wind turbine icing mitigation

  4. Title: An experimental study on dynamic ice accretion and its effects on the aerodynamic characteristics of stay cables with and without helical fillets

  5. Title: Bio-Inspired Icephobic Coatings for Aircraft Icing Mitigation: A Critical Review

  6. Title: An experimental study on the spatiotemporal evolution of sand waves/ripples in turbulent boundary layer airflow