Shashikala BS | Material Science | Research Excellence Award

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Dr. Shashikala BS | Material Science | Research Excellence Award

JSS Science and Technology University | India

Dr. Shashikala B. S. is a distinguished researcher at JSS Science and Technology University, Mysore, India, specializing in materials science and nanotechnology with a focus on advanced energy storage systems. With 10 publications cited 77 times, she has contributed significantly to the development of polymer nanocomposites, particularly exploring the synergistic effects of Core-Shell PANI/HNT nanofillers in polycarbonate films to enhance structural integrity, electrical permittivity, and thermal stability. Dr. Shashikala has collaborated extensively with a network of 39 co-authors, fostering interdisciplinary research and advancing innovation in functional materials. Her work not only strengthens the scientific understanding of polymer nanocomposites but also holds practical implications for sustainable energy solutions, reflecting a commitment to societal and technological impact. Recognized for her rigor and scholarly contributions, she continues to influence both academic research and applied materials engineering.

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Top 5 Featured Publications

Chong-Qing Wan | Material chemistry | Research Excellence Award

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Prof. Dr. Chong-Qing Wan | Material chemistry | Research Excellence Award 

Professor | Capital Normal University | China

Prof. Dr. Chong-Qing Wan is a leading materials chemist whose research focuses on advanced porous materials—particularly metal–organic frameworks (MOFs), covalent organic frameworks (COFs), ionic liquids, and hybrid functional materials engineered for energy storage, catalysis, environmental remediation, and photochemical applications. With 83 scientific publications and more than 1,987 citations across 1,717 citing documents, he has established a strong international research profile marked by innovation, productivity, and sustained scientific influence. His recent work includes pioneering contributions to melt-quenched glass formation in metal-carboxylate frameworks, the design of ionic-liquid-functionalized MOFs as high-performance solid electrolytes, and the development of zwitterionic COFs with tunable meltability and processability—advances that open new opportunities in solid-state ionics and functional porous materials. Prof. Wan has also contributed significantly to photocatalysis, including the construction of CdS–MOF heterostructures for enhanced visible-light hydrogen generation, as well as the engineering of mixed-linker MOFs for improved charge separation and photoactivity. His expertise extends to catalysis and environmental chemistry, exemplified by the creation of macro-microporous solid ionic liquids for efficient biodiesel synthesis and the development of magnetic zirconium-based MOFs for the extraction of environmental pollutants. Over his career, Prof. Wan has collaborated with more than 170 co-authors, reflecting a strong network within the global materials science community and active participation in multidisciplinary research. His scientific contributions have broad societal relevance, advancing sustainable energy technologies, cleaner chemical processes, and environmental protection. Through his role at the MOE Key Laboratory of Bioorganic Phosphorus Chemistry & Chemical Biology in Beijing, Prof. Wan continues to shape the development of next-generation functional materials, combining fundamental insight with practical technological impact.

Profiles: Scopus

Featured Publications

1. Li, W.-L., Li, J.-R., Li, G.-Q., Cui, X. K., Xue, W.-L., Li, M. H., … & Wan, C.-Q. (2026). Flux melting of UiO-67 family metal–organic frameworks: the thin film processing and nanofiltration property. Advanced Membranes.

2. Cui, X. K., Ding, Y., Feng, L., Chen, L. M., Hu, Y. M., Chen, H., & Wan, C.-Q. (2025). An ionic-liquid functionalized metal–organic framework and its high performance as a solid electrolyte for lithium-ion conduction. Dalton Transactions, 54, 561-570. F — Citations: 14

3. Li, J.-R., Han, Y.-C., Xue, W.-L., Li, Z.-F., Deng, Y.-H., & Wan, C.-Q. (2023). Solid ionic liquids with macro–microporous structure for efficient heterogeneous catalysis of biodiesel. New Journal of Chemistry.

4. Li, L. F., Guo-Qiang Li, Y.-K. Li, Xiao-Ling Gu, Si-Yuan Hu, Yu-Chen Han, Yi-Fan Wang, Ji-Ci Zheng, Yu-Heng Deng & Wan, C.-Q. (2022). MOF-supported crystalline ionic liquid: new type of solid electrolyte for enhanced and high ionic conductivity. Dalton Transactions.

5. Wang, Y.-F., Sun, J., Han, Y.-C., Li, F., Gu, X.-L., Hui Gao, Si-Yuan Hu, Yu-Heng Deng & Wan, C.-Q. (2022, July). Thiol-Functionalized Metal-Organic Frameworks Bonded to Cubic CdS: A New Synthesis of a Heterostructure with High Activity for Splitting Water into H₂ under Visible-Light Irradiation. ChemPhotoChem.

Prof. Dr. Chong-Qing Wan is advancing the frontiers of metal–organic frameworks through pioneering work in melt-quenched MOF glasses, solid electrolytes, and processable porous materials. His research bridges fundamental chemistry with real-world applications in clean energy, catalysis, and advanced separation technologies. By transforming traditionally brittle crystalline frameworks into versatile, high-performance functional materials, he is shaping the next generation of materials for sustainable industrial innovation.

Jinghua Zhao | Topological Superconducting | Best Researcher Award

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Mr. Jinghua Zhao | Topological Superconducting | Best Researcher Award

Jinghua Zhao | Xi’an University of Science and Technology | China

Jinghua Zhao is a postgraduate researcher in the School of Science at Xi’an University of Science and Technology, specializing in quantum materials and spintronics. Her research focuses on quantum spin devices and topological superconductivity, employing advanced first-principles calculations using VASP and Quantum ESPRESSO, Wannier-based tight-binding models, and model Hamiltonian approaches to explore spin filtering, strong electronic correlations, and topological phase transitions in low-dimensional systems. She has significantly contributed to understanding how external electric fields and chemical potential tuning via controlled doping can induce single-direction spin filtering and modulate superconducting phases, providing a foundation for energy-efficient spintronic and quantum devices. Her publications in high-impact journals such as Materials Today Physics and Advanced Theory and Simulations present pioneering insights into correlation-driven superconductivity, spin-dependent transport, and novel diode functionalities in quantum materials. Zhao has participated in multiple ongoing and completed research projects, demonstrating strong analytical and collaborative skills within her research group. Her work bridges theoretical discovery with device-level design principles, contributing to global advancements in low-power, high-performance quantum technologies. Through her computational expertise and focus on spin–orbit coupling, Berry curvature, and phonon stability, she aims to accelerate the realization of scalable quantum materials and spintronic architectures with societal impact in sustainable information processing. (Employment: Xi’an University of Science and Technology, Xi’an, China; Works: 2)

Profiles: ORCID

Featured Publications

Zhao, J., Yan, Z., Kong, J., Wang, Y., Xiong, K., Qi, C., & Wang, Z. (2025, December). Strong electronic correlation-driven topological superconductivity and exotic transport properties in ZrCl monolayer. Materials Today Physics.

Liang, X., Yan, Z., Kong, J., Zhao, Z., Zhao, J., Wang, Y., Qi, C., Wang, Z., & Zhao, J. (2025, July). Performing of spin‐dependent diodes in Co‐doped SiC bilayer by fully epitaxial magnetic tunnel junctions. Advanced Theory and Simulations.

Mr. Jinghua Zhao’s research in quantum materials and spintronics advances the scientific foundation for next-generation quantum and spin-based computing technologies. Her innovative work on spin filtering and topological superconductivity contributes to the development of ultra-efficient, low-power electronic devices, driving global innovation in sustainable information processing and advanced material design.

Khuangul Khimersen | Polymers | Best Researcher Award

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Mrs. Khuangul Khimersen | Polymers | Best Researcher Award

Research Assistant | Bekturov Institute of Chemical Sciences | Kazakhstan

Dr. Khimersen Khuangul is an experienced specialist in the field of chemistry and physical chemistry of high-molecular compounds, polyelectrolytes, functional polymers, polymer networks, and hydrogels. She has made significant contributions to the synthesis and development of polymer systems and selective sorbents for the recovery of various ions from technological solutions. Her scientific output includes about 12 publications in Web of Science and Scopus, 8 patents for utility models in joint authorship, 40 citations, and an h-index of 4, reflecting her growing influence in polymer science. Dr. Khuangul has presented her research at several international conferences, including the Uzbek-Kazakh symposium “Modern issues of polymer science” and the International Scientific and Practical Conference of the CIS Member States on Chemistry and Chemical Technology. Her work focuses on the physical chemistry of polymers, polyelectrolytes, functional polymers, and the design and application of polymer networks and hydrogels. Through her publications, patents, conference presentations, collaborative projects, and development of selective polymer systems, Dr. Khimersen Khuangul has made substantial contributions to advancing polymer science and functional materials, demonstrating innovation, technical expertise, and significant impact in her field.

Profiles: Scopus | ORCID | Google Scholar

Featured Publications

1. Jumadilov, T., Totkhuskyzy, B., Malimbayeva, Z., Kondaurov, R., Imangazy, A., & Khimersen, K. (2021). Impact of neodymium and scandium ionic radii on sorption dynamics of Amberlite IR120 and AB-17-8 remote interaction. Materials, 14(18), 5402.

2. Jumadilov, T., Khimersen, K., Totkhuskyzy, B., & Haponiuk, J. (2021). Adsorption methods for the extraction and separation of rare earth elements: Review. Kompleksnoe Ispolzovanie Mineralnogo Syra = Complex Use of Mineral Resources, 12, 2021.

3. Jumadilov, T., Khimersen, K., Malimbayeva, Z., & Kondaurov, R. (2021). Effective sorption of europium ions by interpolymer system based on industrial ion-exchanger resins Amberlite IR120 and AB-17-8. Materials, 14(14), 3837.

4. Jumadilov, T., Malimbayeva, Z., Khimersen, K., Saparbekova, I., Imangazy, A., & Kondaurov, R. (2021). Specific features of praseodymium extraction by intergel system based on polyacrylic acid and poly-4-vinylpyridine hydrogels. Bulletin of Karaganda University. Chemistry Series, 103(3), 53–59.

Dr. Khimersen Khuangul’s research on functional polymers and polymer networks has advanced the development of highly selective sorbent systems. Her work enables efficient ion recovery, supporting sustainable materials and environmental protection. It addresses critical challenges in industrial and technological applications. Overall, her contributions drive innovation and have significant global impact in polymer science.