Dr. Subhash Singh | Material Science | Best Researcher Award

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Dr. Subhash Singh | Material Science | Best Researcher Award

Dr. Subhash Singh | Senior Scientist / Research Faculty | University of Rochester | United States

Academic Background

He completed his foundational studies in physics with a focus on laser spectroscopy, optical metrology, and the spectroscopic diagnosis of laser-produced metal plasmas. His academic journey spans undergraduate, postgraduate, and doctoral education at a leading Indian university known for its contributions to physical sciences. His citation record reflects substantial influence across disciplines. On Google Scholar, his work has been cited more than seven thousand times with an h-index exceeding forty. On Scopus, his research output includes over one 126 indexed documents with citations recorded across more than 4626 works and an h-index above 36. These indicators highlight sustained research impact and continued relevance in multiple scientific domains.

Research Focus

His research centers on ultrafast laser–matter interactions, plasma science, nanomaterials, and surface engineering for energy and environmental applications. He also explores thermal management, renewable desalination, direct air capture, and photonic sensing using advanced plasmonic and nanoscale platforms.

Work Experience

He has served in senior research and academic roles across prominent institutions in the United States, China, Ireland, and India. His work includes leading femtosecond laser laboratories, supervising research teams, managing laboratory operations, mentoring postgraduate and undergraduate researchers, and writing successful grants valued in the millions. He has also developed experimental facilities, established new research laboratories, and contributed to interdisciplinary collaborations in optics, materials science, and sustainable technologies. His responsibilities have ranged from designing experimental systems and developing energy solutions to directing doctoral research groups and leading institutional scientific initiatives.

Key Contributions

He has advanced knowledge in femtosecond laser surface processing, evaporation-driven desalination, direct cooling technologies, and nanoparticle synthesis in liquids. His investigations into higher harmonic generation, plasmonic sensing, metasurfaces, and photovoltaic-thermal integration have influenced both applied and fundamental research. He has also contributed to laser doping of semiconductors, solar cell fabrication, and nanostructured catalyst development.

Awards and Recognition

His research achievements have resulted in high-impact publications, international collaborations, funded projects, and recognition through editorial and invited research roles.

Professional Roles and Memberships

He has served as a guest editor for scientific journals, supervised doctoral and master’s candidates, and contributed to institutional committees. His leadership includes directing research groups, conducting weekly progress reviews, hiring academic staff, and coordinating laboratory operations in optics, plasmonics, and materials science. He is affiliated with professional communities through publications, collaborations, peer-review, and editorial contributions.

Publication Profile

Scopus

ORCID

Featured Publications

Singh, S. C., Vorbeyev, A., Madsen, M., Wei, R., & Guo, C. (2025). Maintenance-free evaporative cooling using laser-processed superwicking surfaces. Cell Reports Physical Sciences.

Singh, S. C., Tang, L., Wei, R., & Guo, C. (2025). Solar-thermal purification with high interfacial efficiency. Advanced Functional Materials.

Xu, T., Wei, R., Singh, S. C., & Guo, C. (2025). Solar thermoelectric performance enhancement through spectral engineering. Light: Science & Applications.

Konda, S. R., Barik, P., Singh, S. C., & Rao, V. (2025). Nonlinear optical modulation in MoS2 media. Advanced Optical Materials.

Saraj, C. S., Singh, S. C., Verma, G., Li, W., & Guo, C. (2023). Pulsed-laser ablated nanocomposites for hydrogen generation. Applied Surface Science Advances.

Impact Statement / Vision

His work bridges laser physics, nanotechnology, and sustainable engineering to address global energy, water, and environmental challenges. He envisions advancing laser-assisted material processing and photonic technologies to deliver scalable solutions for clean energy, climate resilience, and resource optimization.

Ms. Shengnan Yuan | bimetal composite | Best Researcher Award

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Ms. Shengnan Yuan | bimetal composite | Best Researcher Award

PhD student, University of Wollongong, Australia

Shengnan Yuan is a dedicated researcher in the field of mechanical engineering, specializing in advanced materials, tribology, and manufacturing processes. She is currently pursuing a Ph.D. at the University of Wollongong, Australia, focusing on the mechanical properties, tribological performance, and formability of novel bimetal composites. With a strong academic foundation and multiple research contributions, she has actively participated in international conferences, presented groundbreaking studies, and published high-impact journal papers. Her research integrates theoretical analysis, experimental methodologies, and industrial applications, making significant advancements in material science and engineering.

Publication Profile

🎓 Education

Shengnan Yuan earned her Doctor of Philosophy in Engineering from the University of Wollongong, Australia (expected completion: March 2025). Her research focuses on bimetal composites and their mechanical behavior. Prior to this, she completed a Master of Research in Engineering from the same university with a high-distinction thesis on size effects in stainless steel foil during the micro deep drawing process. She holds a Bachelor’s degree in Vehicle Engineering from Taiyuan University of Science and Technology, China, where she was a recipient of the Corporate Scholarship, University Special Merit Scholarship, and University First-Class Scholarship.

🔬 Experience

With extensive research experience, Shengnan Yuan has contributed to BAJC-funded Ph.D. projects focused on roll bonded clad steels and their service performance evaluation. Her work includes investigating the abrasive wear performance, deformation behavior, and annealing effects on bimetal composites. She has demonstrated 2.8 times higher wear resistance in Mn8/SS400 composites compared to standard materials. Her expertise spans microstructural analysis, mechanical testing, and heat treatment optimization. Additionally, she has participated in various industry engagements, hosting delegations and presenting research findings to government officials and steel industry leaders. She also serves as a tutor at the University of Wollongong, guiding students in experimental techniques.

🏅 Awards and Honors

Shengnan Yuan’s academic excellence has been recognized through multiple scholarships and awards. During her undergraduate studies, she received prestigious merit-based scholarships for outstanding academic performance. Her research work has been selected for oral and poster presentations at renowned international conferences, including ICTP, CAMS, and ICPMMT. Her contributions to cutting-edge material science research have positioned her as a promising expert in tribology and advanced manufacturing.

🔍 Research Focus

Shengnan Yuan’s research revolves around microstructure-property relationships in advanced materials, tribological performance optimization, and bimetal composite engineering. She has extensively studied the mechanical and tribological behavior of Mn8/SS400 bimetal composites, optimizing their annealing conditions, deformation characteristics, and failure mechanics. Her work provides valuable insights for industrial applications, particularly in the manufacturing of mining facilities and wear-resistant materials. She actively collaborates with industry leaders to translate her research into practical engineering solutions.

🌟 Conclusion

Shengnan Yuan is a rising researcher in advanced materials, tribology, and mechanical engineering, making significant contributions to the development and optimization of bimetal composites. Her work has paved the way for innovative industrial applications, improving the wear resistance and mechanical properties of critical engineering materials. With multiple publications, conference presentations, and industry collaborations, she continues to push the boundaries of material science, bridging the gap between academic research and industrial advancements. 🚀

📚 Publications

Analysis of abrasive impact wear of a bimetal composite using a newly designed wear testing rig – The International Journal of Advanced Manufacturing Technology (2024). Read here 📖

Effects of annealing temperature on the microstructure, mechanical properties, and tribological performance of the Mn8/SS400 bimetal composite – Tribology International (2025). Read here 🏗️

The Effects of Annealing on Microstructure and Mechanical Properties of Mn8/SS400 Bimetal Composite – International Conference on the Technology of Plasticity, Springer (2023). Read here 🔬

Deformation and fracture behaviour of heterostructure Mn8/SS400 bimetal composite – Materials (2025). Read here 🏭

Analysis of Rolling Force and Friction in Hot Steel Rolling with Water-Based Nanolubrication – Steel Research International (2024). Read here 🔧

Influence of GNPs solid lubricant on the fabrication of Cu/SS304L composite micro channels – Tribology International (2024). Read here ⚙️

Novel Fabrication of Ultra-thin Copper/SS304L Composite Microchannels – International Conference on the Technology of Plasticity, Springer (2023). Read here 🏗️