Zhongnan Wang | Mechanical Engineering | Best Researcher Award

Assoc. Prof. Dr. Zhongnan Wang | Mechanical Engineering | Best Researcher Award

Assoc. Prof. Dr. Zhongnan Wang, Beijing Jiaotong University, China

Dr. Zhongnan Wang is a distinguished academic and researcher specializing in biotribology, micro/nanotribology, and MEMS technology. Currently serving as an Associate Professor at the School of Mechanical, Electronic and Control Engineering, Beijing Jiaotong University, Dr. Wang has developed a reputation for cutting-edge work in advanced hydrogels and material characterization. With dual PhDs and extensive postdoctoral experience, his multidisciplinary approach combines engineering precision with biomedical applications. His research has significantly advanced understanding in friction, wear, and lubrication in biological systems, particularly the development of materials mimicking natural cartilage. Through editorial roles and peer-review contributions, he also plays a vital part in shaping the scientific discourse in his field.

Professional Profile

Scopus Profile
ORCID

🎓 Education

Dr. Wang has an impressive academic foundation, beginning with a Bachelor of Engineering degree from Northeast Agricultural University (2002–2006). He then pursued a Master’s degree at Harbin Institute of Technology (2007–2009), where he deepened his expertise in mechatronic systems. His academic rigor led to a dual-PhD path: one in Mechatronic Engineering from Harbin Institute of Technology (2009–2016), and another in Engineering from the University of Warwick, UK (2012–2017). This dual training in both Chinese and Western academic traditions has enabled him to bridge innovative theoretical knowledge with real-world applications in engineering science.

🧪 Experience

Professionally, Dr. Wang’s career began with a prestigious postdoctoral position at Tsinghua University (2017–2019) in the State Key Laboratory of Tribology in Advanced Equipment, where he focused on tribological behavior in biomedical applications. Since March 2020, he has been contributing as an Associate Professor at Beijing Jiaotong University. His responsibilities span research leadership, teaching, and supervising graduate-level students. Across these roles, Dr. Wang has led several high-impact research projects, collaborated with interdisciplinary teams, and contributed to advancing the university’s reputation in mechanical engineering and materials science.

🔬 Research Interests

Dr. Wang’s primary research areas include biotribology, with a special focus on hydrogel materials that simulate the mechanical and lubrication properties of biological tissues. He also investigates MEMS sensors and actuators, material characterization, and micro/nanotribology. His research stands out for its potential to revolutionize biomedical implants and soft robotics by mimicking the functionality of natural cartilage and other biological interfaces. By integrating nanomaterials like dopamine-modified hydroxyapatite into polymer networks, he has contributed to the development of materials that combine load-bearing capabilities with ultra-low friction.

🏆 Awards and Honors

Dr. Wang’s contributions have earned him several prestigious editorial appointments. He serves as an Associate Editor for the Open Access Journal of Data Science and Artificial Intelligence (since May 2025) and as a Guest Editor for Lubricants (since January 2025). He is also on the Editorial Board of the International Journal of Materials Science and Applications (2024–2027) and a Young Editorial Board Member for Materials Science and Technology (2023–2026). Furthermore, he has been a Topic Editor for Materials since 2021. He is an active reviewer for prominent journals including ACS Applied Materials & Interfaces, Langmuir, PLOS ONE, and Scientific Reports, further underlining his influence in the academic community.

📚Publications Top Notes

A Bilayer Composite Hydrogel with Simultaneous High Load Bearing and Superior Lubrication by Dopamine Modified Nano-Hydroxyapatite

Journal: Surfaces and Interfaces
Authors: Zhongnan Wang, Hui Guo, Ji Zhang, Yi Qian, Fanjie Meng, Yueshan Mu
Summary:
This paper presents a breakthrough in hydrogel-based biomaterials by introducing a bilayer composite hydrogel system that achieves both high load-bearing capacity and low-friction lubrication, which are critical for simulating natural cartilage function. The novelty lies in the integration of dopamine-modified nano-hydroxyapatite (nHA) into the hydrogel matrix.

Low-Friction Hybrid Hydrogel with Excellent Mechanical Properties for Simulating Articular Cartilage Movement

Journal: Langmuir
Authors: Zhongnan Wang, Fanjie Meng, Yue Zhang, Hui Guo
Summary:
This article introduces a hybrid hydrogel engineered for simulating articular cartilage movement, addressing the critical challenge of achieving a balance between mechanical robustness and low-friction behavior. The hydrogel is composed of a dual-network system combining a polyvinyl alcohol (PVA) matrix with a second polymeric or nano-reinforcement network, designed to mimic the viscoelastic and lubricative performance of biological cartilage.

✅ Conclusion

In conclusion, Dr. Zhongnan Wang is a forward-thinking scientist whose interdisciplinary expertise bridges mechanical engineering, material science, and biomedicine. Through advanced research in hydrogels and tribological systems, editorial leadership, and committed academic service, he is advancing the field of biotribology and inspiring the next generation of engineers and researchers. With a consistent record of impactful publications, strategic academic roles, and visionary research, Dr. Wang stands out as a strong candidate for recognition and award nomination in his field.

Sarah Al-Challabi | Plasma Additive manufacturing | Best Researcher Award

Ms. Sarah Al-Challabi | Plasma Additive manufacturing | Best Researcher Award

Ph.D. Candidate, Universiti Teknologi PETRONAS (UTP), Iraq

Sarah Najm Al-Challabi is a passionate and innovative researcher currently pursuing her Ph.D. in Mechanical Engineering at Universiti Teknologi PETRONAS (UTP), Malaysia. Her work lies at the intersection of advanced materials and manufacturing technologies, with a strong emphasis on additive manufacturing processes such as Plasma Additive Manufacturing (PAM) and Wire Arc Additive Manufacturing (WAAM). She has developed expertise in optimizing the performance of critical materials including Stainless Steel 316L and Oxide Dispersion Strengthened (ODS) alloys—materials that are vital to high-temperature and nuclear applications. Sarah’s commitment to scientific excellence is evident in her multidisciplinary approach, which bridges experimental research with computational modeling, aiming to contribute durable, efficient, and sustainable solutions to global engineering challenges.

Profile

Orcid

Education 🎓

Sarah’s academic trajectory showcases her deep commitment to research and knowledge. She earned her Master’s degree in Mechanical Engineering Technology from Universiti Tun Hussein Onn Malaysia (UTHM) in February 2019, where she cultivated strong analytical and practical engineering skills. Currently, she is undertaking her Ph.D. in Mechanical Engineering at Universiti Teknologi PETRONAS (UTP), which she began in January 2022. Her doctoral research builds upon her foundational knowledge to explore cutting-edge manufacturing processes and material innovations, particularly those relevant to energy and nuclear sectors.

Experience 🛠️

Since beginning her doctoral journey, Sarah has held the role of Ph.D. Candidate at UTP’s Department of Mechanical Engineering. Her research role involves not only laboratory experimentation but also the use of advanced modeling and simulation tools such as Thermo-Calc, ABAQUS, Simufact Additive, and Simufact Welding. She has been deeply involved in evaluating microstructural stability, analyzing failure mechanisms, and improving the structural performance of additively manufactured materials. Through academic collaboration, publishing, and attending scholarly events, Sarah continues to contribute meaningfully to the broader research community.

Research Interests 🔬

Sarah’s research focuses on the future of manufacturing and material science, specializing in Plasma Additive Manufacturing (PAM) and Wire Arc Additive Manufacturing (WAAM). She works with materials like Stainless Steel 316L and Oxide Dispersion Strengthened (ODS) alloys, with applications in nuclear reactors and high-temperature environments. Her research also explores microstructural stability and phase transformations to improve material performance. Sarah aims to enhance the structural integrity and thermal properties of advanced materials, driving more efficient and sustainable industrial solutions.

Publications 📚

Friction Stir Welding of Similar and Dissimilar Al and Cu Lap Joints: Effect of Work Piece Material on Conductive Welding Speed Window, Weld Strength and Hardness
Advances in Mechanical Engineering (2024) – Cited by 1 article

Design and Failure Analysis of a Vacuum Pressure Vessel for Aerospace Applications Using Finite Element Analysis (FEA)
Engineering, Technology & Applied Science Research (2024) – Cited by 1 article

Progress in Additive-Enhanced Magnesium Borohydride Mg(BH₄)₂ for Hydrogen Storage Applications: A Systematic Review
International Journal of Hydrogen Energy (2024) – Cited by 1 article

Progresses in Improving Mechanical Properties of Maraging Steel MS1 Through Laser Additive Manufacturing for Renewable Energy Application
Springer Nature Singapore (2023) – Cited by 2 articles

Conclusion 

Sarah Najm Al-Challabi exemplifies the essence of emerging academic excellence and professional dedication in mechanical engineering. Her unique blend of theoretical insight and practical research into additive manufacturing positions her at the forefront of innovation in materials science. Through her published work, technical expertise, and unwavering focus on solving industry-relevant challenges, she continues to expand the boundaries of engineering research. As a nominee, Sarah’s profile reflects a dynamic scholar equipped with the intellect, vision, and determination to impact the future of technology-driven manufacturing. Her journey stands as a testament to the value of perseverance, collaboration, and scientific curiosity in shaping tomorrow’s engineering landscape.