Assist. Prof. Dr Nirmala Darekar | Materials Science | Material Scientist Award

Assist. Prof. Dr Nirmala Darekar | Materials Science | Material Scientist Award

Assist. Prof. Dr. Nirmala Ramdas Darekar is a dedicated researcher and educator specializing in Analytical Chemistry, with a strong focus on the synthesis and biological evaluation of heterocyclic compounds and nanomaterials. She has contributed extensively to material science through eco-friendly nanoparticle fabrication, bioactive compound development, and advanced molecular docking studies. Her prolific research record includes numerous publications in reputed journals, four granted patents, and significant editorial contributions to scientific books. She has been actively involved in academic teaching, mentoring, and participating in national and international conferences, strengthening her profile as a leader in chemical and material sciences.

Assist. Prof. Dr Nirmala Darekar | Rayat Shikshan Sanstha’s Radhabai Kale Mahila Mahavidyalaya Ahmednagar | India

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Education

Dr. Darekar holds a Ph.D. in Chemistry from S.P. Pune University, with a specialization in Analytical Chemistry. She also holds an M.Sc. in Analytical Chemistry from the University of Pune, a B.Ed. in Science from S.N.D.T. University, and has cleared the SET in Chemical Science. Her academic achievements are consistently marked by top-class distinctions, reflecting her commitment to excellence. Her doctoral research was rooted in developing novel synthetic methodologies and exploring their biological potential, integrating both experimental and computational approaches for impactful chemical discoveries.

Experience

With over five years of academic experience at Rayat Shikshan Sanstha, Dr. Darekar has been involved in both teaching and high-impact research. She served as a Research Assistant under a UGC major project focused on biologically important chromones and azoles. Her research portfolio spans synthetic chemistry, antimicrobial evaluation, computational studies, and nanomaterial applications. She has edited books, authored multiple chapters, and contributed to the scientific community through workshops, conferences, and collaborative projects.

Contributions

Assist. Prof. Dr. Nirmala Ramdas Darekar has made significant scholarly contributions through the publication of twelve book chapters in prestigious international publications. Her chapters cover a wide range of topics, including the synthesis, properties, and biological applications of various heterocycles such as thiazoles, isothiazoles, thiadiazoles, thiazines, benzothiophenes, benzothiazepines, and benzoxazoles. She has also authored chapters on green chemistry, focusing on nanocatalysts and biogenic synthesis of silver, zinc, and gold nanoparticles using plant, algae, and fungi extracts. These works, published by respected publishers like The Royal Society of Chemistry, Cambridge Scholars, CRC Press, and IGI Global, reflect her expertise in material and medicinal chemistry.

Patents

Dr. Darekar has authored 19 research publications in respected journals such as the Russian Journal of General Chemistry, Russian Journal of Bioorganic Chemistry, and Polycyclic Aromatic Compounds. Her work focuses on synthesizing heterocyclic derivatives, eco-friendly nanoparticle production, and computational modeling of bioactive molecules. She holds four granted patents, including innovations in antimalarial agents, antioxidant agents, antibacterial agents, and therapeutically active compounds. Additionally, she has contributed as an editor for two scientific books and authored twelve book chapters on synthetic strategies and applications of heterocycles and nanomaterials.

Research Focus

Dr. Darekar’s research is centered on the synthesis and characterization of heterocyclic compounds, green synthesis of nanomaterials, and evaluation of their antimicrobial, antioxidant, and anti-inflammatory properties. She integrates computational studies, such as molecular docking, with experimental chemistry to design and optimize biologically active compounds. Her work on eco-friendly fabrication methods supports sustainable chemistry, while her patented innovations contribute to pharmaceutical and material science applications. This multidisciplinary approach bridges organic synthesis, material science, and bioactivity studies.

Publications

Eco-Friendly Fabrication of Silver Nanoparticles Using Syzygium stocksii Leaf Extract: Physicochemical Characterization and Evaluation of Antioxidant and Anti…
Authors: HN Akolkar, GB Pawar, DN Raut, GK Prashanth, HS Lalithamba, S Rao, 
Journal: Russian Journal of General Chemistry

Synthesis, Antimicrobial Activity, and Molecular Docking Study of Novel (E)-1-(5-Chloro-2-hydroxyphenyl)-3-{5-fluoro-2-[(1-phenyl-1H-1,2,3-triazol-4-yl)methoxy…
Authors: JB Wable, CT Mascarenhas, HN Akolkar, NR Darekar, MH Shaikh, …
Journal: Russian Journal of General Chemistry

Benzoxazoles: Diverse Biological Activities and Therapeutic Potential
Authors: GK Prashanth, S Rao, HS Lalithamba, KV Rashmi, NP Bhagya, …
Journal: Five Membered Bioactive N and O-Heterocycles: Models and Medical …, 2025

Benzothiazepine: Recent Advances in Synthesis and Biological Application
Authors: SG Kundlikar, HN Akolkar, DR Thube, NR Darekar, VM Khedkar
Journal: Examining Biological Relevance of Fused S-Heterocycles

Design, Synthesis, Molecular Docking, and Anti-inflammatory Activity of 2-[(E)-{1-[4-(4-Chlorophenyl)-1,3-thiazol-2-yl]-1H-pyrazol-4-yl}(hydroxyimino)methyl]phenol and {1-[4 …
Authors: NR Darekar, SJ Takate, HN Akolkar, MH Shaikh, VM Khedkar, DN Raut, …
Journal: Russian Journal of Organic Chemistry

ynthesis, Properties, and Biological Applications of 1,3-Thiazoles
Authors: NR Darekar, VM Khedkar, PK Gadekar, SD Mhaske, SJ Takate
Year: 2024

Synthesis, Properties, and Biological Applications of 1,2,4-Thiadiazoles
Authors: P Mohite, N Bhoge, SG Dengale, NR Darekar
Year: 2024

Conclusion

Assist. Prof. Dr. Nirmala Ramdas Darekar exhibits a strong combination of academic excellence, innovative research, and practical application in material science. Her achievements in heterocyclic chemistry, green nanotechnology, patents, and scholarly publications clearly position her as a deserving candidate for the Material Scientist Award. Her contributions are both nationally and internationally relevant, with potential for significant future advancements in sustainable and functional material development.

Assist. Prof. Dr Naveed Ahmed | High-Performance Materials | Best Researcher Award

Assist. Prof. Dr Naveed Ahmed | High-Performance Materials | Best Researcher Award

Assist. Prof. Dr. Naveed Ahmed is a medical microbiologist and research scientist with extensive expertise in infectious diseases, antimicrobial resistance, vaccine design, and nanomedicine. Currently serving at the University of Tabuk, Saudi Arabia, he combines academic leadership with impactful research collaborations across multiple countries. He has authored numerous high-impact Q1/Q2 publications, holds multiple copyrights, and is actively engaged in global health initiatives, including as a GBD Senior Collaborator and a Registered Scientist (UK). His multidisciplinary work spans from molecular microbiology to translational medicine.

Assist. Prof. Dr Naveed Ahmed | University of Tabuk | Saudi Arabia

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Education

Dr. Ahmed earned his Ph.D. in Medical Microbiology from Universiti Sains Malaysia, where his doctoral work explored immune checkpoint regulation in EBV-associated cancers. He previously obtained a Master’s in Microbiology from the University of Central Punjab and a BS (Honors) in Medical Laboratory Technology from the University of the Punjab. His education is complemented by certifications from professional bodies such as the Royal Society of Biology (UK) and the Malaysia Board of Technologists.

Experience

Dr. Ahmed’s career spans clinical diagnostics, academic teaching, and advanced research. As Assistant Professor at the University of Tabuk, he teaches medical sciences and contributes to curriculum design and quality assurance. His previous roles include Graduate Research Assistant at Universiti Sains Malaysia, where he managed research grants and ethics approvals, and Laboratory Technologist roles in top medical institutions in Pakistan. He has also served as a visiting lecturer in multiple universities.

Skills and Expertise

Assist. Prof. Dr. Naveed Ahmed possesses a diverse skill set combining technical, analytical, and linguistic competencies. He is fluent in Urdu and Punjabi, advanced in English, and has basic proficiency in Arabic. His programming expertise includes R for data cleaning, visualization, and statistical modelling, with proficiency in conducting systematic reviews and meta-analyses. He is skilled in data analysis software such as R, SPSS, RevMan, CMA, and OpenMeta, and proficient in Microsoft Office and LaTeX for document creation. His laboratory expertise spans advanced instruments including flow cytometry, PCR systems, ELISA readers, HPLC analyzers, hematology analyzers, and automated diagnostic systems.

Honors and Awards 

Assist. Prof. Dr. Naveed Ahmed has earned multiple prestigious recognitions for his academic and research excellence. He received the Graduate on Time Award and was nominated for the Best PhD Thesis Award at Universiti Sains Malaysia. His presentation skills and impactful research earned him the 2nd Place Oral Presentation and Young Investigator Award at the Regional Conference on Molecular Medicine and the National Conference for Cancer Research. He has twice received the Sanggar Sanjung Award for outstanding publications, along with awards for best oral and poster presentations. Additionally, he was awarded the USM Research Assistance Scheme for academic merit.

Research Focus 

Dr. Ahmed’s research focuses on infectious diseases, nanomedicine, antimicrobial resistance, and molecular diagnostics. He integrates in silico, in vitro, and translational approaches to address global health challenges, including the development of nanomaterials for diagnostics and therapeutics, computational vaccine design, and the study of emerging pathogens. His work bridges fundamental science and clinical application, with strong collaborations in Asia, the Middle East, and beyond.

Publications

A Review of In Silico and In Vitro Approaches in the Fight Against Carbapenem-Resistant Enterobacterales
Authors: Absar, M.; Zaidah, A.R.; Ahmed, N.; Nik Hashim, N.H.H.; Yean, C.Y.; Mahmood, A.; Ahmad, S.; Ejaz, H.
Journal: Journal of Clinical Laboratory Analysis (2025)

Carbon-Based Nanomaterials as Multifunctional Particles for Cancer Diagnosis and Treatment
Authors: Naveed Ahmed; Mai Abdel Haleem A. Abusalah; Muhammad Absar; Muhammad Sajid Noor; Bakhtawar Bukhari; Saira Ali Anjum; Kirnpal Kaur Banga Singh; Chan Yean Yean
Journal: Nano LIFE (2025)

The Microbial Sources of Bioactive Compounds: Potential Anticancer Therapeutic Options
Authors: Naveed Ahmed; Mai Abdel Haleem A. Abusalah; Muhammad Absar; Muhammad Hassan Nasir; Anam Farzand; Ijaz Ahmad; Zaineb Sohail; Kirnpal Kaur Banga Singh; Atif Amin Baig; Chan Yean Yean
Journal: Nano LIFE (2025)

ipaH-Targeted Electrochemical Genosensor: A Fast and Reliable Diagnostic Approach for Simultaneous Detection of Shigella Species and Enteroinvasive Escherichia coli
Authors: Pavithrah Shunmugam; Naveed Ahmed; Kirnpal Kaur Banga Singh
Journal: Microchemical Journal (2025)

Prevalence of Leptospirosis Infections Among Humans in Malaysia: A Systematic Review and Meta-Analysis
Authors: Mohd Yusof M.S.; Naveed Ahmed
Journal: Tropical Biomedicine (2025)

Exploring TGF-β Signaling in Benign Prostatic Hyperplasia: From Cellular Senescence to Fibrosis and Therapeutic Implications
Authors: Abida Khan; Hayat Ali Alzahrani; Shatha Ghazi Felemban; Alanood Saeed Algarni; Amani Baqqan S. Alenezi; Mehnaz Kamal; Zia Ur Rehman; Syed Mohammed Basheeruddin Asdaq; Naveed Ahmed
Journal: Biogerontology (2025)

Synthesis, and Biological Activities of Silver Nanoparticles Produced via Green Synthesis Method Using Cordyceps Militaris Aqueous Extract
Authors: Muhammad Afzal; Tayyaba Khan; Noshaba Mehmood; Romaisa Irfan; Ravish Fatima; Zeemal Seemab Amin; Naveed Ahmed
Journal: Nano (2025)

Conclusion

Assist. Prof. Dr. Naveed Ahmed demonstrates all the hallmarks of a top-tier researcher international collaborations, a strong publication record in Q1/Q2 journals, clinical and laboratory expertise, intellectual property generation, and leadership in medical science education. His contributions to infectious disease research, vaccine development, and nanomedicine strongly support his nomination and suitability for the Best Researcher Award.

Prof. Dr Vassilis Kostopoulos | Composite Materials | Best Researcher Award

Prof. Dr Vassilis Kostopoulos | Composite Materials | Best Researcher Award

Prof. Dr. Vassilis Kostopoulos is an internationally acclaimed researcher in the field of mechanical engineering, composite materials, and aerospace structures. With over 35 years of academic and industrial experience, he is currently a Full Professor at the University of Patras, Greece, and serves as Director of the Applied Mechanics Laboratory. His pioneering contributions to smart structures, nanocomposites, fatigue behavior, and health monitoring systems have significantly shaped research and applications in aerospace, automotive, and defense sectors.

Prof. Dr Vassilis Kostopoulos | University of Patras | Greece

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Education

Prof. Kostopoulos earned his Diploma in Mechanical Engineering and later his Ph.D. in Applied Mechanics from the University of Patras. His doctoral research laid the foundation for decades of expertise in damage mechanics, fracture behavior, and composite structures. He has since mentored over 20 Ph.D. candidates and supervised several postgraduate programs, influencing new generations of engineers and researchers.

Experience

As Director of the Applied Mechanics Lab and principal investigator in over 50 European and national research projects, Prof. Kostopoulos has collaborated extensively with ESA, Airbus, EADS, and NATO. He has led high-impact projects on smart aerospace structures, structural health monitoring, and high-performance composites. His industry-academia interface is marked by innovation and real-world impact, making him a valuable leader in research translation.

Contributions

Prof. Dr. Vassilis Kostopoulos has significantly contributed to academic literature through the authorship and editorial direction of several influential books in the field of materials science and engineering. His works span from historical insights in science to advanced composite materials. Titles include “Exact Sciences in the Greek Antiquity,” co-edited with S. A. Paipetis, and “Carbon Nanotube Enhanced Aerospace Composite Materials,” published by Springer. He has also authored specialized texts such as “Thermomechanical Behavior of Composite Materials,” “Wave Propagation and Scattering Theory in Anisotropic Media,” and proceedings of the Hellenic Conference on Composites, showcasing a broad and impactful academic reach.

Awards

Prof. Dr. Vassilis Kostopoulos has earned numerous prestigious awards for his excellence in research, innovation, and mentorship. His accolades include top prizes in international competitions such as the ESA Student Aerospace Challenge, iGEM MIT International Competition, TRA-VISIONS Senior Scientist Award, and ESA “Fly Your Thesis” program. He has guided teams to victories in innovation and design contests, including awards for CubeSat missions, aerospace projects, and sustainable energy vehicle designs. His recognition spans best paper awards, research excellence honors, and innovation prizes at national and European levels, reflecting his exceptional ability to lead groundbreaking projects with real-world impact.

Research Focus 

Prof. Kostopoulos’s research explores advanced topics such as nanocomposites, structural health monitoring, crack propagation, and electromagnetic shielding in composite materials. His work in aerospace structures, including sensor-embedded materials and self-sensing composites, is transforming how high-performance materials behave under complex stress conditions. His focus is both visionary and practical, combining fundamental mechanics with applied innovations.

Publications

Effect of Printing Parameters on Mesoscale Geometry of 3D-Printed Parts through a Hybrid Experimental and Numerical Approach
Journal: Journal of Materials Engineering and Performance, 2025

Conceptual Design of a Low-Cost Class-III Turbofan-Based UCAV Loyal Wingman
Journal: Aerospace, 2025

Transonic Corrections for the Unsteady Compressible Source and Doublet Panel Method
Journal: Journal of Aircraft, 2025

Recycled Glass Fibre‒Epoxy Composites Based on Recovered Fabrics from an Environment-Friendly Combined Solvolysis and Thermolysis Route
Journal: Composites Science and Technology, 2025

Multi-Fidelity Surrogate-Assisted Aerodynamic Optimization of Aircraft Wings
Journal: Aerospace, 2025

Macroscopic Fracture Properties of Glassy Nanocomposites from Molecular Dynamics Simulations and Empirical Force Fields
Journal: Journal of Physical Chemistry B, 2025

Flutter Calculations Using the Unsteady Source and Doublet Panel Method
Journal: Journal of Aircraft, 2025

Conclusion

Prof. Dr. Vassilis Kostopoulos’s outstanding career combines academic distinction, industrial innovation, global collaboration, and mentorship. His trailblazing work in composite mechanics, aerospace structures, and nanomaterials has shaped the scientific community and directly contributed to safer, smarter, and more efficient technologies. He not only meets but exceeds the standards of the Best Researcher Award, and stands as a beacon of excellence in material and structural engineering research.

Dr. Mingsheng Xiahou | Structural Materials | Best Researcher Award

Dr. Mingsheng Xiahou | Structural Materials | Best Researcher Award

Dr. Mingsheng Xiahou is a visionary marine engineer and offshore wind energy innovator. A graduate of Shanghai Jiao Tong University, he currently serves as the Chief Designer and head of the R&D team at the Marine Design & Research Institute of China (MRIC). His pioneering efforts in offshore wind power equipment have helped transform China into a global leader in offshore wind construction, with his designs powering nearly 80% of the national market. His career reflects a deep commitment to sustainable energy, marine engineering, and industrial innovation.

Dr. Mingsheng Xiahou | Shanghai Jiao Tong University | China

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Education

Dr. Xiahou received his formal education from Shanghai Jiao Tong University, one of China’s top engineering institutions. His educational journey laid a robust foundation in mechanical and marine design engineering, which he later transformed into practical leadership and research excellence in offshore wind systems. His academic background empowered him to lead pioneering innovations that bridge theoretical engineering with real-world environmental solutions.

Experience

Dr. Xiahou holds a leading role at MRIC, where he designs core equipment across the entire offshore wind industry chain. His career includes the creation of standardized wind turbine installation vessels, cable-laying ships, and floating wind platforms. He has guided successful launches of deep-sea equipment such as the “HaiDian YunWei 801” and “Huaxia Honghu 01,” while winning prestigious national awards in science and management innovation. His engineering solutions cover intertidal zones, nearshore, and deep-sea operations.

Contributions

Dr. Xiahou has delivered groundbreaking innovations, such as hybrid wind-hydrogen-marine ranching platforms and large-scale turbine installation systems. His designs have integrated turbine transport, foundation installation, and cable deployment into single efficient platforms, increasing operational efficiency and reducing costs. He introduced deep-sea optical cable layers, high-capacity cable storage systems, and multipurpose mother ships for floating turbine systems. These projects have set new industry benchmarks in both engineering and sustainability.

Research Focus 

Dr. Xiahou’s current research focus centers on cost-effective and sustainable offshore wind infrastructure. His interests include floating wind turbine systems, digital simulation, and multi-functional marine platforms for renewable energy generation and ocean resource management. By enhancing project efficiency, reducing costs, and driving green innovation, his work aligns with both national energy strategies and global climate goals.

Publications

Integrated Assessment Methodology for Jack-Up Stability: Centrifuge Test of Entire Four-Legged Model for WTIVs
Authors: Mingsheng Xiahou, Zhiyuan Wei, Yilin Wang, Deqing Yang, Jian Chi, Shuxiang Liu
Journal: Applied Sciences
Theme: Offshore structural stability, centrifuge modeling, jack-up platforms for wind turbine installation vessels (WTIVs)

Investigation on Calm Water Resistance of Wind Turbine Installation Vessels with a Type of T-BOW
Authors: Mingsheng Xiahou, Deqing Yang, Hengxu Liu, Yuanhe Shi
Journal: Journal of Marine Science and Engineering
Theme: Hydrodynamic performance analysis, calm water resistance, T-BOW hull design for marine vessels

Conclusion

Dr. Mingsheng Xiahou is an outstanding candidate for the Best Researcher Award, with a career that exemplifies innovation-driven impact at the intersection of marine engineering, renewable energy, and national infrastructure development. His leadership in offshore wind technology, vessel design, and integrated energy systems positions him as a transformative contributor to the field. With enhanced academic dissemination and international engagement, his influence can extend even further on the global stage.

Dr. Baozhe Jin | Biomaterials | Best Researcher Award

Dr. Baozhe Jin | Biomaterials | Best Researcher Award

Dr. Baozhe Jin is a highly respected Chief Physician of Neurosurgery at The First Affiliated Hospital of Xinxiang Medical University, China. He is dedicated to advancing both clinical and basic research in neural injury, protection, and functional repair. With extensive experience in skull base microanatomy and nerve regeneration medicine, he contributes to critical breakthroughs in neurotrauma management. His ongoing projects focus on gene-modified therapies and neuroprotective strategies, highlighting his deep commitment to improving patient outcomes through innovation.

Dr. Baozhe Jin | The First Affiliated Hospital of Xinxiang Medical University | China

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Education

Dr. Jin possesses a robust medical and academic background, leading him to become a chief physician and researcher in the specialized field of neurofunctional repair. Though the exact educational milestones are not detailed, his clinical authority and ongoing research roles reflect a rigorous and accomplished academic journey. He actively collaborates with leading neurosurgery centers such as Beijing Tiantan Hospital and serves as a member of the Neurocontrol Professional Committee of the Chinese Medical Doctor Association, reinforcing his scientific credibility.

Experience

Dr. Jin has led major neuroprotective research initiatives, notably the Henan Medical Science and Technology Key Project investigating valproic acid combined with NT-3 gene-modified olfactory sheath cells for treating traumatic brain injury. This study blends clinical insight with cutting-edge biomedical engineering. Additionally, he participates in key scientific and technological research projects sponsored by Henan Province, focusing on improving post-injury neural outcomes.

Contributions

Dr. Baozhe Jin has demonstrated long-term dedication to advancing neural function repair and protection following traumatic brain injury (TBI). His research bridges skull base microanatomy, clinical neurosurgical applications, and regenerative neuroscience, focusing on developing innovative treatments such as gene-modified olfactory ensheathing cells and neuroprotective compounds. He combines clinical expertise with cutting-edge biomedical research to improve outcomes in patients with central nervous system injuries. His work contributes to the growing field of nerve regeneration medicine, making strides in both basic science and translational clinical applications

Research Focus 

Dr. Jin’s research targets functional protection and repair following central nervous system injuries, including traumatic brain injury and spinal cord damage. His interdisciplinary approach bridges clinical neurosurgery, molecular neuropharmacology, and regenerative medicine, focusing on gene therapies, olfactory ensheathing cells, and pharmaceutical interventions like valproic acid. His contributions improve both the understanding and treatment of neural trauma.

Publications

Effect of Dynamin-2 Gene Modified OECs on Functional and Molecular Neuroprotection After Spinal Cord Injury in Rats
Journal: Neurochemical Research, 2025

Expression of Homeobox Gene-A7 in Glioma and Its Effect on Proliferation and Apoptosis of Glioma Cells
Journal: Journal of Xinxiang Medical University, 2024

Effect of Valproic Acid Combined with Transplantation of Olfactory Ensheathing Cells Modified by Neurotrophic 3 Gene on Nerve Protection and Repair After Traumatic Brain Injury
Journal: Neuropeptides, 2024

Conclusion

Dr. Baozhe Jin is a dedicated clinician-scientist with impactful research contributions in neural repair and regeneration. His work bridges basic neuroscience with clinical application, reflecting a strong foundation for innovation in the treatment of brain injuries. He is a deserving candidate for the Best Researcher Award, and with expanded academic outreach and global engagement, his influence in the field is likely to grow further.

Mr. Zhaoli Su | Computational Materials Science | Best Researcher Award

Mr. Zhaoli Su | Computational Materials Science | Best Researcher Award

Mr. Zhaoli Su is a Ph.D. candidate at the Beijing Institute of Technology, specializing in Optoelectronic Information Engineering with a focused application in medical multimodal artificial intelligence. His research bridges deep learning, radiology, and clinical decision support systems to develop intelligent diagnostic tools. With active involvement in medical image-text fusion and language model applications, Mr. Su’s academic pathway reflects innovation in healthcare AI. His early career shows promise in aligning technological advancement with medical utility.

Mr. Zhaoli Su | Beijing Institute of Technology | China

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Education

Mr. Su is currently pursuing a Ph.D. in Optoelectronic Information Engineering. His academic training covers medical imaging, machine learning, and natural language processing, forming a robust foundation for intelligent healthcare systems development. Throughout his doctoral program, he has engaged in cutting-edge research that integrates clinical data with AI algorithms to solve diagnostic challenges in radiology.

Experience

His research experience includes developing advanced diagnostic systems by integrating medical image processing and large language models. He has contributed to projects involving radiology report generation and modeling disease progression using longitudinal imaging data. Through interdisciplinary collaboration, he applies deep learning techniques to improve the accuracy and efficiency of clinical decision-making. His work reflects a strong commitment to advancing intelligent healthcare technologies through AI innovation and applied research in medical informatics.

Contributions

Mr. Zhaoli Su’s research focuses on the advancement of intelligent systems for medical imaging analysis, with particular emphasis on multimodal data fusion, disease diagnosis, and radiology report generation. Utilizing large-scale clinical datasets and cutting-edge artificial intelligence models, he has developed automated tools that improve diagnostic precision and clinical workflow efficiency. His work is characterized by a strong interdisciplinary approach that combines optoelectronic engineering and healthcare technology. By addressing real-world clinical challenges through innovative AI applications, his contributions pave the way for more accurate, accessible, and scalable diagnostic support systems in modern medicine.

Research Focus

Mr. Su’s primary research areas include Medical Multimodal AI, Radiology Report Generation, and Clinical Decision Support Systems. He works on integrating textual and imaging data using deep learning to improve interpretability and accuracy in clinical diagnostics. His emphasis on modeling disease progression and developing tools for real-time clinical use makes his work valuable in advancing AI-powered healthcare solutions.

Publications

MedKit: Multi-level Feature Distillation with Knowledge Injection for Radiology Report Generation
Authors: Zhaoli Su, Hong Song, Yucong Lin, You Wu, Xutao Weng, Zhongxuan Mao, Bowen Liu, Hongxia Yin, Jian Yang
Journal: Expert Systems with Applications

PRTA: Joint Extraction of Medical Nested Entities and Overlapping Relation via Parameter Sharing Progressive Recognition and Targeted Assignment Decoding Scheme
Authors: Bowen Liu, Hong Song, Yucong Lin, Xutao Weng, Zhaoli Su, Xinyan Zhao, Jian Yang
Journal: Computers in Biology and Medicine

Conclusion

Mr. Zhaoli Su demonstrates strong research potential in the intersection of artificial intelligence and medical imaging. His early contributions to radiology report generation and clinical AI systems are promising and well-aligned with healthcare innovation. He is a fitting candidate for emerging research recognition, particularly the Best Research Scholar Award, and with continued scholarly growth, will be well-positioned for future recognition as a leading researcher in the field.

Dr. Jingna Liu | Thermodynamics of Materials | Best Researcher Award

Dr. Jingna Liu | Thermodynamics of Materials | Best Researcher Award

Dr. Jingna Liu is an Assistant Professor at Sun Yat-sen University, with a doctoral degree in Soil Science from the University of Copenhagen. Her academic foundation bridges advanced environmental science and agricultural sustainability. After completing her Ph.D., she began her research and teaching career in China, focusing on soil fertility and agricultural waste valorization. Her professional trajectory demonstrates a commitment to improving nutrient management and promoting sustainable agriculture through interdisciplinary and applied research.

Dr. Jingna Liu | Sun Yat-Sen University | China

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Education

Dr. Liu earned her Ph.D. in Soil Science from a leading European institution, where she specialized in nutrient cycling and soil health. Her education integrated core aspects of environmental sustainability, microbiology, and agricultural chemistry. The combination of European academic standards and applied agricultural focus equipped her with both theoretical insight and practical skill, enabling her to address complex challenges in agricultural waste management and soil resource efficiency.

Experience

Dr. Liu has developed her academic career as an Assistant Professor at Sun Yat-sen University. She has completed and led multiple research projects related to agricultural waste recycling and soil fertility enhancement. Her experience includes both academic research and consultancy collaborations with industry stakeholders, contributing to real-world applications of her findings. With an active presence in both research and academic mentoring, she plays a significant role in advancing sustainable agricultural practices.

Contribution

Dr. Jingna Liu’s research has made pivotal contributions to sustainable agriculture by optimizing the thermal drying process of solid digestate. Her work uncovered the fundamental mechanisms of nitrogen transformation and demonstrated that acidification prior to drying significantly reduces ammonia (NH₃) volatilization while enhancing plant-available nitrogen. This innovation boosts the fertilizer value of dried digestate, enabling its conversion into a nutrient-rich organic fertilizer. By improving nutrient retention and reducing dependency on synthetic fertilizers, her findings support circular agriculture, waste valorization, and improved environmental stewardship.

Research Focus 

Dr. Liu’s research focuses on the recycling and utilization of agricultural solid waste, soil fertility enhancement, and nitrogen use efficiency. She investigates thermal drying and acidification processes to optimize nitrogen retention and reduce environmental emissions. Her work emphasizes the transformation of organic waste into effective fertilizers, offering solutions for improving soil health and reducing dependence on chemical inputs. Her studies provide scientific insights that support practical applications in sustainable farming systems.

Publications

Effect of Acidification on Nitrogen Transformation of Solid Digestate During Thermal Drying
Authors: Weimin Wu, Jingna Liu
Journal: Published July 2025

Acidification Prior to Drying of Digestate Solids Affects Nutrient Uptake and Fertilizer Value When Applied to Maize
Authors: Jingna Liu, Dorette Sophie Müller-Stöver, Lars Stoumann Jensen
Journal: Published September 2024

Comparison of Alum and Sulfuric Acid to Retain and Increase the Ammonium Content of Digestate Solids During Thermal Drying
Authors: Jingna Liu, Lars Stoumann Jensen, Dorette Müller-Stöver
Journal: Published June 2021

Acidified Animal Manure Products Combined with a Nitrification Inhibitor Can Serve as a Starter Fertilizer for Maize
Authors: Iria Regueiro, Peter Siebert, Jingna Liu, Lars Stoumann Jensen
Journal: Published December 2020

Methane Emission and Soil Microbial Communities in Early Rice Paddy as Influenced by Urea-N Fertilization
Authors: Jingna Liu, Huadong Zang, Heshui Xu, Zhaohai Zeng
Journal: Published December 2019

Increased Retention of Available Nitrogen During Thermal Drying of Solids of Digested Sewage Sludge and Manure by Acid and Zeolite Addition
Authors: Jingna Liu, Andreas de Neergaard, Lars Stoumann Jensen
Journal: Published September 2019

Conclusion

Dr. Jingna Liu is a promising and impactful researcher contributing to the advancement of sustainable agriculture through innovative research on nutrient recycling and soil fertility. Her scientific insights into nitrogen retention and emissions reduction place her as a suitable candidate for the Best Researcher Award. With expanded global engagement and broader application of her findings, she is well-positioned to become a leading figure in environmental soil science and sustainable waste management.

Dr. Tetiana Melnychenko | Materials Science | Best Researcher Award

Dr. Tetiana Melnychenko | Materials Science | Best Researcher Award

Dr. Tetiana Melnychenko is a senior staff scientist at the Department of Vapour-Phase Technologies of Inorganic Materials at the E.O. Paton Electric Welding Institute, National Academy of Sciences of Ukraine. Her work specializes in advanced materials science, particularly the development of multilayer and high-entropy alloys using electron beam physical vapor deposition (EBPVD). With a deep foundation in metallurgy and a long-standing academic presence, Dr. Melnychenko has contributed significantly to structural materials research and diffusion bonding technologies, establishing herself as a leading figure in vapor-phase technologies.

Dr. Tetiana Melnychenko | E.O. Paton Electric Welding Institute NASU | Ukraine

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Education

Dr. Melnychenko earned her foundational degree in the physics of metals from Kiev Polytechnic Institute. She completed her Ph.D. with a focus on phase equilibria and structural formation in complex alloy systems and later attained a Doctor of Science (Dr.Sc.) degree in materials science, where her thesis focused on the structure and properties of condensed metal nanomaterials fabricated by electron beam evaporation. Her academic training is solidly anchored in materials physics and engineering with special emphasis on nanostructured alloys and vacuum deposition methods.

Experience

Dr. Melnychenko has over three decades of professional research experience. She began her scientific career at the Institute for Metal Physics and later advanced through various research roles at the E.O. Paton Electric Welding Institute. She has been instrumental in developing vapor-phase technologies and currently serves as a leading researcher. Her collaborative roles have also extended to international electron beam technology centers, indicating a strong presence in both national and international materials science communities.

Contribution

Dr. Tetiana Melnychenko has co-invented a method for producing encapsulated nanopowders along with the design of an installation to implement this process. The invention addresses the challenges of nanoparticle stability, reactivity, and safe handling by enclosing them in protective shells. This technique enhances the functional properties of nanomaterials and ensures better control during their integration into composite systems. The encapsulation method allows for improved performance in various industrial applications, including electronics, coatings, and energy storage materials. Her contribution to this patent highlights her innovative role in advancing nanotechnology and materials engineering through practical, scalable solutions.

Research Focus 

Dr. Melnychenko’s research is centered on vapor-phase deposition technologies, particularly the use of electron beam evaporation for producing nanostructured films and multilayered materials. She investigates diffusion bonding mechanisms, the formation and behavior of high-entropy alloys, and the mechanical behavior of multilayer foils under heat and load. Her studies provide valuable insights into material interfaces, joining techniques, and the enhancement of mechanical properties through tailored microstructures. She also holds a U.S. patent related to nanopowder encapsulation technologies.

Publications

Effect of Plastic Deformation of Ti/Ni Multilayer Foil with Eutectic Composition on the Formation of Ti6Al4V Alloy Vacuum Diffusion Bonded Joints
Authors: T. Melnychenko, A. Ustinov, S. Demchenkov, O. Samofalov
Journal: Vacuum, Article 114603, 2025

Diffusion Bonding of Ti6-4 Alloy Through Multilayer Interlayers of an Eutectic Composition Based on Ti–Cu System
Authors: T.V. Melnychenko, A.I. Ustinov, O.Y. Klepko, O.V. Samofalov
Journal: The Paton Welding Journal, Pages 3–9, 2025

The Paton Welding Journal 2025 № 01
Authors: T.V. Melnychenko, A.I. Ustinov, O.Y. Klepko, O.V. Samofalov
Journal: Paton Welding Journal 1 (01), Pages 3–9, 2025

Origin of the Formation of Isostructural bcc-Fe + bcc-Cu Nanocomposites in Fe–Cu Alloy via Vacuum Co-deposition
Authors: A.I. Ustinov, L.O. Olikhovska, S.O. Demchenkov, V.S. Skorodzievskii, …
Journal: AIP Advances 15 (1), 2025

Phase and Structural Transformations During Heating of Multilayer Ti/Cu Foils of Eutectic Composition Obtained by the EBPVD Method
Authors: S.O. Demchenkov, T.V. Melnychenko, A.I. Ustinov, O.E. Rudenko, …
Journal: The Paton Welding Journal, Pages 12–19, 2024

The Paton Welding Journal 2024 № 09
Authors: S.O. Demchenkov, T.V. Melnychenko, A.I. Ustinov, O.E. Rudenko, …
Journal: Paton Welding Journal, Issue 03, 2024

The Paton Welding Journal 2022 № 11
Authors: A.I. Ustinov, S.O. Demchenkov, T.V. Melnychenko, O.Y. Klepko
Journal: Paton Welding Journal 11 (11), Pages 39–44, 2022

Conclusion

Dr. Tetiana Melnychenko is a well-qualified candidate for the Best Researcher Award, with an extensive and sustained track record in advanced materials processing and nanostructured systems. Her scientific rigor, innovation in vapor-phase technologies, and contribution to high-entropy alloy research establish her as a leading expert in her field. With increased international collaboration and commercialization efforts, her already substantial impact could become even more globally recognized.

Dr. Enze Chen | Soft Materials | Best Researcher Award

Dr. Enze Chen | Soft Materials | Best Researcher Award

Dr. Enze Chen is a postdoctoral researcher in the Franck Lab at the University of Wisconsin–Madison, where he explores high-strain-rate injury mechanisms in biological tissues. He earned his Ph.D. in Civil Engineering from Johns Hopkins University, where he specialized in architected and soft materials, combining digital design, additive manufacturing, and mechanical testing. His interdisciplinary research spans civil engineering, material science, and biomedical applications. His scholarly work has been published in high-impact journals such as Science Advances, IJSS, and Mechanics of Materials, establishing him as an emerging expert at the interface of materials mechanics and biology.

Dr. Enze Chen | University of Wisconsin-Madison | United States

Profile

SCOPUS

GOOGLE SCHOLAR

Education

Dr. Chen completed his Ph.D. and M.S. in Civil Engineering at Johns Hopkins University, following a B.S. from Nanjing Forestry University in China. His academic path has been marked by deep engagement in experimental mechanics, digital fabrication, and biomaterials research. During his doctoral studies, he worked under Prof. Stavros Gaitanaros and developed several new insights into the mechanics of brittle lattices, DNA nanostructures, and soft architected materials. He now applies this strong theoretical and experimental background to bioengineering challenges in his postdoctoral work.

Experience

Dr. Chen has extensive experience in the experimental and computational study of advanced materials. As a graduate researcher, he pioneered mechanical studies on brittle lattices and cellular foams using additive manufacturing and tomography. His work also included collaborative research on collagen scaffolds at Cornell University. At the University of Wisconsin–Madison, he now investigates trauma-induced injury mechanics in brain tissue, including responses to blast waves and directed energy. He is a key contributor to the interdisciplinary PANTHER program and actively collaborates across institutions, positioning himself at the forefront of materials-for-health research.

Contributions

Dr. Enze Chen’s research significantly advances the understanding of both architected and biological materials. He developed models to predict buckling behaviors in elastic tubular structures and correlated collagen scaffold microstructures with their mechanical deformation, aiding in biomedical scaffold design. He quantified the fracture toughness of brittle lattices and introduced a crystallography-inspired framework for designing 3D metamaterials with tunable mechanical, thermal, and permeability traits. In the biomedical domain, he identified mechanisms of secondary brain injury (like tauopathy and neuroinflammation) and created microsecond-micrometer platforms to measure tissue responses to blast and directed energy.

Award

Dr. Enze Chen received the prestigious Hickman Fellowship from Johns Hopkins University in recognition of his exceptional academic performance and research excellence during his graduate studies. This competitive fellowship is awarded to outstanding students who demonstrate strong potential for impactful contributions in their field. Dr. Chen’s selection reflects his pioneering work in the mechanics of architected and biological materials, including fracture analysis of brittle lattices and soft tissue deformation under high strain rates. The fellowship supported his continued exploration of interdisciplinary challenges in materials science, further affirming his capabilities as a high-achieving and dedicated researcher.

Research Focus 

Dr. Chen’s research bridges structural mechanics and biomedical engineering. His work focuses on architected materials, particularly brittle lattices, DNA nanostructures, and soft biological scaffolds. He has contributed new knowledge in fracture mechanics, energy absorption, and material instabilities. His postdoctoral research applies these concepts to brain injury modeling under high-strain-rate conditions, including blast exposure and directed energy effects. This work has important implications for defense, neuroscience, and medical innovation.

Publications

A Data-Driven Framework for Structure-Property Correlation in Ordered and Disordered Cellular Metamaterials
Authors: S. Luan, E. Chen, J. John, S. Gaitanaros
Journal: Science Advances, 2023, Vol. 9(41), eadi1453

On the Compressive Strength of Brittle Lattice Metamaterials
Authors: E. Chen, S. Luan, S. Gaitanaros
Journal: International Journal of Solids and Structures, 2022, Vol. 257, 111871

On the Strength of Brittle Foams with Uniform and Gradient Densities
Authors: E. Chen, S. Luan, S. Gaitanaros
Journal: Extreme Mechanics Letters, 2022, Vol. 51, 101598

Stretching DNA Origami: Effect of Nicks and Holliday Junctions on the Axial Stiffness
Authors: W.H. Jung, E. Chen, R. Veneziano, S. Gaitanaros, Y. Chen
Journal: Nucleic Acids Research, 2020, Vol. 48(21), 12407–12414

Stability of an Elastic Honeycomb Under Out-of-Plane Compression
Authors: Y. Tang, E. Chen, S. Gaitanaros
Journal: International Journal of Solids and Structures, 2025

Conclusion

Dr. Enze Chen is a highly qualified and deserving candidate for the Best Researcher Award. His interdisciplinary research, scientific rigor, and active collaborations reflect a mature and innovative approach to solving complex problems in material and biomedical sciences. With further expansion into innovation ecosystems and research leadership, Dr. Chen is on a clear path to becoming a leading figure in his field.

Mr. Dae Hyeob Yoon | Materials Science | Best Researcher Award

Mr. Dae Hyeob Yoon | Materials Science | Best Researcher Award

Mr. Dae Hyeob Yoon is currently an undergraduate researcher in Mechanical Engineering at Chungbuk National University (CBNU), South Korea. His research interests lie in micro/nanotechnology, sensors, and MEMS. Despite being at an early stage in his academic career, he has already contributed to a peer-reviewed publication in Applied Sciences and participated in nationally recognized research programs. His early engagement in advanced materials research and active academic presentation record demonstrate a deep commitment to scientific inquiry.

Mr. Dae Hyeob Yoon | Chungbuk National University (CBNU) | South Korea

Profile

ORCID

Education

Mr. Yoon is pursuing a Bachelor of Science in Mechanical Engineering at CBNU. Alongside his coursework, he has been actively involved in undergraduate research initiatives, including the Undergraduate Research Opportunities Program (UROP). His academic training has allowed him to integrate theoretical knowledge with experimental design and fabrication techniques related to flexible electronics and nanomaterials.

Research Experience 

As an undergraduate, Mr. Yoon has contributed to one completed research project involving the development of a flexible and conductive heating membrane. He has presented his work at the Korean Society of Mechanical Engineers (KSME) and will present at the EKC conference in Austria. His publication demonstrates competency in research design, experimental methodology, and technical writing, marking significant early-career achievements.

Contributions

Mr. Dae Hyeob Yoon’s research is focused on developing flexible heating technologies for use in wearable electronics and smart textiles. His current work involves creating a scalable, low-voltage, and mechanically stable heating platform using advanced materials and fabrication techniques. This research addresses major limitations in existing flexible heaters, such as fragility and high energy demands. The technology he is advancing has significant potential for integration into next-generation wearable devices, enabling personalized and adaptive applications in health, fitness, and smart clothing systems. His innovative approach contributes meaningfully to the field of flexible, functional electronics.

Research Focus 

Mr. Yoon’s primary research focus is on the application of micro and nanotechnology to develop scalable and efficient platforms for wearable and flexible electronics. His current work addresses key challenges in mechanical stability and power efficiency, contributing to emerging markets in personalized technology and smart textiles. His interdisciplinary interest bridges mechanical engineering with material science and electronics.

Publication

Development of a Flexible and Conductive Heating Membrane via BSA-Assisted Electroless Plating on Electrospun PVDF-HFP Nanofibers

Author: Dae Hyeob Yoon

Conclusion

Mr. Dae Hyeob Yoon is a motivated and talented early-stage researcher whose contribution to nanofiber-based heating technologies is noteworthy. His research potential is clear, and with continued academic development and broader engagement in scientific activities, he has the capacity to evolve into a strong candidate for high-level research awards. At this time, he would be better suited for young researcher or emerging researcher recognition, while continuing to build toward Best Researcher status in the future.