YINGHUI HUA | Intelligent Materials | Best Researcher Award

Prof. YINGHUI HUA | Intelligent Materials | Best Researcher Award

Chief Physician, Department of Sports Medicine, Huashan Hospital, Fudan University, China

Prof. YINGHUI HUA is a renowned orthopedic surgeon specializing in sports medicine, arthroscopy, and orthopedic rehabilitation. He serves as Chief Physician at Huashan Hospital, affiliated with Fudan University, and has been a PhD and Master’s supervisor guiding future medical professionals. With an extensive background in knee, shoulder, hip, and ankle surgeries, he has trained internationally in Switzerland, Belgium, Japan, and the USA. Prof. YINGHUI HUA plays a vital role in professional societies, chairing key committees in Asia-Pacific and Chinese medical associations. He has contributed significantly to research on sports injuries, joint preservation, and rehabilitation. Recognized for his excellence, he has received multiple honors in the field of orthopedics and sports medicine.

Profile

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Education 🎓

Harvard Medical School (2017-2018): Global Clinical Scholars Research Training Program. Huashan Hospital, Fudan University (1998-2007): PhD in Sports Medicine, Master’s in Orthopedics. Shanghai Medical University (1993-1998): Bachelor of Medicine & Bachelor of Surgery.

Professional Experience 👨‍⚕️

Huashan Hospital, Fudan University Chief Physician (2015–Present) Associate Chief Physician (2010–2015) Attending Physician (2003–2010) Resident (2000–2003) Fudan University PhD Supervisor (2017–Present) Master’s Supervisor (2011–Present) Associate Professor (2015–Present) Shanghai University of Sport Master’s Supervisor (2020–Present)

Awards & Honors 🏆

Chair of Ankle Committee, Asia-Pacific Society for Knee, Arthroscopy & Orthopedic Sports Medicine. Vice-Chair of Youth Committee & Ankle Working Committee, Chinese Medical Association. Vice-Chair of Orthopedic Rehabilitation Committee, Overseas Chinese Orthopedic Association. Vice-Chair of Sports Health Rehabilitation Committee, Shanghai Rehabilitation Medicine Association. Fellowships: Geneva University Hospital, Antwerp Orthopedic Center, Kobe University Hospital, The Steadman Clinic, San Antonio Orthopedic Hospital.

Research Focus 🔬

Sports-related injuries: Diagnosis and treatment of ACL, meniscus, and ligament injuries. Arthroscopic surgery: Minimally invasive techniques for knee, shoulder, hip, and ankle surgeries. Joint preservation: Novel therapies for cartilage regeneration and osteoarthritis management. Rehabilitation and biomechanics: Enhancing post-surgical recovery and sports performance. Innovative surgical techniques: Development of advanced arthroscopic and regenerative medicine approaches.

Publications

Simulation on detachment and migration behaviors of mineral particles induced by fluid flow in porous media based on CFD-DEM.

🔹 Mechanism analysis and energy-saving strengthening process of separating alcohol-containing azeotrope by green mixed solvent extraction distillation.

🔹 Prediction of hydrodynamics in a liquid–solid fluidized bed using the densimetric Froude number-based drag model.

🔹 CFD-DEM simulation of aggregation and growth behaviors of fluid-flow-driven migrating particles in porous media.

🔹 Flow behaviors of ellipsoidal suspended particles in porous reservoir rocks using CFD-DEM combined with a multi-element particle model.

🔹 Simulation on flow behavior of particles and its effect on heat transfer in porous media.

Conclusion

With an exceptional background in clinical and academic medicine, extensive leadership in professional societies, and global collaborations, this candidate is highly suitable for the Best Researcher Award in the field of Sports Medicine & Orthopedic Surgery. Strengthening high-impact research publications, securing global grants, and integrating technology-driven research would further solidify his standing as a top contender for this prestigious award. 🏆

Julian Plewa | mechanische Metamaterialien | Research Visionary in Materials Mechanics Award

Prof. Dr. Julian Plewa | mechanische Metamaterialien | Research Visionary in Materials Mechanics Award

professor, University of Silesia, Katowice, China

Prof. Dr. Julian Plewa is a distinguished materials scientist with expertise in metallurgy, nanotechnology, and optical materials. With a career spanning over five decades, he has held academic and research positions at leading institutions in Poland and Germany. His contributions to high-temperature superconductors, thermoelectrics, and mechanical metamaterials have advanced the field of materials science. Currently a professor at the University of Silesia, he continues to pioneer innovations in functional materials and optical materials.

Profile

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Education 🎓

Master of Science in Metallurgy – AGH University of Science and Technology, Cracow, 1973 Doctor of Philosophy in Technical Sciences – AGH University of Science and Technology, 1979 Habilitated Doctor in Materials Science – Silesia University of Technology, Gliwice, 2005

Experience 🏫

Lecturer – Silesia University of Technology (1981–1988) Teaching Assistant – University of Applied Sciences Muenster (2010–2017)  Visiting Professor – Cracow University of Technology (1995–2017) Professor – University of Silesia (2019–present)

Awards & Honors 🏆

Recognized for contributions to non-ferrous metallurgy Honored for advancements in high-temperature superconductors Awarded for innovative research in thermoelectrics mAcknowledged for breakthroughs in optical materials and mechanical metamaterials

Research Focus 🔬

Non-ferrous metallurgy – Lead refining, zinc spraying Sustainable materials – Battery recycling, aluminum foil reuse Advanced materials – High-temperature superconductors, thermoelectrics Optical materials – Phosphors, specialty glass Mechanical metamaterials – Structural innovations and applications

Publications 📚

📄 Auxetic Structures & Mechanical Metamaterials
🔹 J. Plewa, M. Plonska, P. Lis, Investigation of Modified Auxetic Structures from Rigid Rotating Squares, Materials 15(2022) 2848

📄 Lanthanide & Glass Crystallization
🔹 J. Plewa et al., Crystallization of Lanthanide—Ho³⁺ and Tm³⁺ Ions Doped Tellurite Glasses, Materials 15(2022) 2662
🔹 M. Płońska, J. Plewa, Crystallization of GeO₂-Al₂O₃-Bi₂O₃ Glasses, Crystals 10(2020) 522

📄 Optical & Luminescent Materials
🔹 J. Plewa et al., Partial Crystallization of Er³⁺/Yb³⁺ Co-Doped Oxyfluoride Glass, Materials Engineering 39(2018) 204
🔹 T. Dierkes, J. Plewa et al., From Metals to Nitrides – Rare Earth Binary Systems, J. Alloys & Compounds 693(2017) 291
🔹 A. Katelnikovas, J. Plewa et al., Yellow Emitting Garnet Phosphors for pcLEDs, J. Luminescence 136(2013) 17
🔹 J. Plewa, T. Jüstel, Pr³⁺ Doped UV Emitting Luminescent Ceramics, Materials Science Forum 636-637(2010) 344

📄 Superconductors & Thermoelectric Materials
🔹 J. Plewa et al., Preparation & Characterization of Calcium Cobaltite for Thermoelectric Applications, Eur. Ceramic Society 25(2005) 1997
🔹 J. Plewa et al., Superconducting Materials for Electronic Applications, Physica C 372-376(2002) 1046
🔹 K. Itoh, J. Plewa et al., RF Magnetic Shielding Effect of a Sealed Bottom Cylinder, Applied Superconductivity Conf. Proc. (2000)

Conclusion 🎯

This researcher is highly suitable for the Research Visionary in Materials Mechanics Award, given their long-standing impact on materials science, mechanical metamaterials, and sustainable material innovation. By expanding industry collaboration, integrating computational mechanics, and increasing patent applications, their contributions could reach even greater heights in the field of materials mechanics. 🚀

 

Huajie Luo | Functional materials | Best Researcher Award

Assoc. Prof. Dr Huajie Luo | Functional materials | Best Researcher Award

Scientific researcher at University of science and technology Beijing, China

👨‍🔬 Huajie Luo (b. 1991, Beijing) is an Associate Professor at the University of Science and Technology Beijing (USTB). He specializes in materials science, particularly in the design and performance regulation of ferroelectric ceramics and thin films. His work bridges atomic structures with macroscopic properties like energy storage and electrostrain. Luo has published extensively in top-tier journals and holds multiple patents. He is known for applying advanced techniques like synchrotron XRD and neutron diffraction to study crystal structures. 🌍📚

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scholar

Education🎓

Huajie Luo earned a Master’s and Ph.D. in Physical Chemistry from the University of Science and Technology Beijing (USTB), where he also completed his postdoctoral research. His doctoral research focused on ferroelectric materials and structure-property relationships. His expertise spans from theoretical modeling to experimental synthesis. 🌟

Experience💼

Luo is currently an Associate Professor at USTB (since 2023) and was a postdoctoral researcher at USTB’s Department of Physical Chemistry (2022-2023). He has participated in significant national research projects and supervised multiple funded initiatives. His broad expertise includes advanced material characterization and design for high-performance devices. 🔬⚙️

Awards and Honors🏅 

Luo has received numerous accolades, including selection for the Postdoctoral Innovative Talent Program and the 2024 Outstanding Postdoctoral Award from USTB. He also earned the 2024 Wiley China High Contribution Author Award and serves on the Youth Editorial Board of Microstructures. 🏆📑

Research Focus🔬

Luo’s research focuses on the design and performance of ferroelectric ceramics and thin films, particularly their macroscopic properties such as electrostrain and energy storage. He uses advanced techniques like synchrotron XRD and neutron diffraction for structural analysis. His work aims to enhance energy storage efficiency and piezoelectric performance. ⚡🧪

Publications

“Chemical design of Pb-free relaxors for giant capacitive energy storage”
Authors: H. Liu, Z. Sun, J. Zhang, et al.
Journal of the American Chemical Society, 145 (21), 11764-11772, 2023

Focuses on the chemical design of lead-free relaxors for large capacitive energy storage.

“Superior capacitive energy-storage performance in Pb-free relaxors with a simple chemical composition”
Authors: Z. Sun, J. Zhang, H. Luo, et al.
Journal of the American Chemical Society, 145 (11), 6194-6202, 2023

Explores the capacitive energy storage performance in Pb-free relaxors with a simplified chemical structure.

“Achieving giant electrostrain of above 1% in (Bi,Na)TiO3-based lead-free piezoelectrics via introducing oxygen-defect composition”
Authors: H. Luo, H. Liu, H. Huang, et al.
Science Advances, 9 (5), eade7078, 2023

Focuses on achieving large electrostrain in (Bi,Na)TiO3-based piezoelectrics with oxygen-defect composition.

“Simultaneously enhancing piezoelectric performance and thermal depolarization in lead-free (Bi, Na) TiO3-BaTiO3 via introducing oxygen-defect perovskites”
Authors: H. Luo, H. Liu, S. Deng, et al.
Acta Materialia, 208, 116711, 2021

Investigates the enhancement of piezoelectric and thermal depolarization properties in (Bi, Na) TiO3-BaTiO3 ceramics.

“Local chemical clustering enabled ultrahigh capacitive energy storage in Pb-free relaxors”
Authors: H. Liu, Z. Sun, J. Zhang, et al.
Journal of the American Chemical Society, 145 (35), 19396-19404, 2023

Highlights the role of local chemical clustering in enhancing energy storage performance in Pb-free relaxors.

Conclusion

In conclusion, Huajie Luo exemplifies the qualities sought after in a Best Researcher Award recipient—exceptional academic productivity, innovative research, and a clear impact on the scientific community. His continued success in both academic and industrial collaborations will likely yield even more groundbreaking results, making him a strong contender for this prestigious award.

Søren Taverniers | Mechanics of Functional Materials | Best Researcher Award

Dr. Søren Taverniers | Mechanics of Functional Materials | Best Researcher Award

Research Scientist at Stanford University, United States

Dr. Sorentav is a computational scientist specializing in energy science and engineering. With expertise in neural networks, physics-informed machine learning, and computational fluid dynamics, he has contributed significantly to advancing numerical modeling techniques. His research focuses on shock physics, subsurface flows, additive manufacturing, and uncertainty quantification. He has developed innovative computational frameworks for high-fidelity simulations and accelerated engineering applications. Dr. Sorentav has published in leading scientific journals, reviewed research papers, and supervised students and interns. His interdisciplinary approach bridges machine learning with physics-based simulations, enhancing predictive accuracy in various domains. He is proficient in multiple programming languages, including Python, C++, MATLAB, and OpenFOAM, and has a strong background in Unix/Linux environments. Through collaborations with academic institutions and industry, he has contributed to cutting-edge projects in materials science, energy systems, and computational mechanics.

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Education 

Dr. Sorentav holds a Ph.D. in Computational Science from the University of California, San Diego (UCSD), where he developed novel numerical techniques for solving complex physics-informed problems in energy and material sciences. His doctoral research focused on advancing simulation accuracy for multiphysics systems, particularly in shock-particle interactions and uncertainty quantification. Prior to his Ph.D., he earned a Master’s degree in Computational Science from UCSD, specializing in physics-informed neural networks and high-performance computing. He also holds a Bachelor’s degree from Katholieke Universiteit Leuven, where he built a solid foundation in applied mathematics, fluid dynamics, and numerical modeling. Throughout his academic career, Dr. Sorentav has received multiple awards for research excellence, including recognition for his Ph.D. dissertation. His education has equipped him with expertise in Monte Carlo simulations, finite difference/volume methods, and applied probability, which he integrates into cutting-edge computational science applications.

Experience

Dr. Sorentav has extensive experience in computational modeling, numerical methods, and physics-informed machine learning. He has worked on developing and validating high-fidelity simulations for energy applications, materials science, and shock physics. His research contributions include designing neural network architectures for scientific computing, implementing uncertainty quantification methods, and improving computational efficiency in large-scale simulations. Dr. Sorentav has collaborated with leading institutions, including Stanford University and UCSD, to accelerate computational model development for industrial and research applications. He has also contributed to proposal writing, conference presentations, and peer-reviewed journal publications. His technical expertise spans various software tools, including PyTorch, OpenFOAM, MATLAB, FEniCS, and Mathematica. Additionally, he has experience supervising student research projects, mentoring interns, and leading interdisciplinary teams. His work integrates applied probability, numerical analysis, and machine learning to address challenges in subsurface flows, additive manufacturing, and compressible fluid dynamics.

Publications

Graph-Informed Neural Networks & Machine Learning in Multiscale Physics

Graph-informed neural networks (GINNs) for multiscale physics ([J. Comput. Phys., 2021, 33 citations])

Mutual information for explainable deep learning in multiscale systems ([J. Comput. Phys., 2021, 15 citations])

Machine-learning-based multi-scale modeling for shock-particle interactions ([Bulletin of the APS, 2019, 1 citation])

These papers focus on integrating neural networks into multiscale physics, leveraging explainability techniques, and improving shock-particle simulations through ML.

2. Monte Carlo Methods & Uncertainty Quantification

Estimation of distributions via multilevel Monte Carlo with stratified sampling ([J. Comput. Phys., 2020, 32 citations])

Accelerated multilevel Monte Carlo with kernel-based smoothing and Latinized stratification ([Water Resour. Res., 2020, 19 citations])

Impact of parametric uncertainty on energy deposition in irradiated brain tumors ([J. Comput. Phys., 2017, 4 citations])

This work revolves around Monte Carlo methods, uncertainty quantification, and their applications in medical physics and complex simulations.

3. Stochastic & Hybrid Models in Nonlinear Systems

Noise propagation in hybrid models of nonlinear systems ([J. Comput. Phys., 2014, 16 citations])

Conservative tightly-coupled stochastic simulations in multiscale systems ([J. Comput. Phys., 2016, 9 citations])

A tightly-coupled domain decomposition approach for stochastic multiphysics ([J. Comput. Phys., 2017, 8 citations])

This research contributes to computational physics, specifically in stochastic and hybrid system modeling.

4. Computational Fluid Dynamics (CFD) & Shock-Wave Interactions

Two-way coupled Cloud-In-Cell modeling for non-isothermal particle-laden flows ([J. Comput. Phys., 2019, 7 citations])

Multi-scale simulation of shock waves and particle clouds ([Int. Symp. Shock Waves, 2019, 1 citation])

Inverse asymptotic treatment for capturing discontinuities in fluid flows ([J. Comput. Sci., 2023, 2 citations])

S. Taverniers has significantly contributed to shock-wave interaction modeling, with applications in aerodynamics and particle-fluid interactions.

5. Computational Plasma & Dielectric Breakdown Modeling

2D particle-in-cell modeling of dielectric insulator breakdown ([IEEE Conf. Plasma Science, 2009, 11 citations])

This early work focuses on plasma physics and dielectric breakdown simulations.

6. Nozzle Flow & Additive Manufacturing Simulations

Finite element methods for microfluidic nozzle oscillations ([arXiv, 2023])

Accelerating part-scale simulations in liquid metal jet additive manufacturing ([arXiv, 2022])

Modeling of liquid-gas meniscus dynamics in arbitrary nozzle geometries (US Patent, 2024)

Conclusion

Based on their remarkable academic achievements, innovative research, and ability to collaborate effectively across disciplines, this candidate is highly deserving of the Best Researcher Award. However, by broadening their industrial collaborations, increasing their research visibility, and considering the wider impact of their work, they could elevate their research contributions even further, making an even greater impact on both academia and industry.

 

chunhong gong | composites | Best Researcher Award

Prof. Dr. chunhong gong | composites | Best Researcher Award

Prof.at Henan University, china

Chunhong Gong, Ph.D., is a professor and doctoral supervisor at Henan University, specializing in nanomaterials and electromagnetic protection. She earned her Ph.D. from Henan University in 2008 and has led multiple National Natural Science Foundation projects. With over 50 publications in top-tier journals, her work spans high-performance magnetic–dielectric composites, carbon-based multifunctional nanomaterials, and their applications in energy conversion systems.

Publication Profile

scopus

Education 🎓

Ph.D. in Materials Science, Henan University (2008) | Extensive research in nanomaterials and composites | Strong academic foundation in energy conversion and electromagnetic materials | Contributor to innovative material design and macro preparation methods | Expertise in functional materials with real-world applications

Experience 🏢

Professor & Doctoral Supervisor, Henan University | Principal investigator in four National Natural Science Foundation projects | Published 50+ papers in high-impact journals | Extensive research in nanomaterial applications and multifunctional composites | Key contributor to energy-efficient material innovations

Awards & Honors 🏅

Recipient of multiple research grants from the National Natural Science Foundation | Recognized for contributions to nanomaterials and electromagnetic protection | Published in esteemed journals like Advanced Functional Materials, Nano Letters, and Nano Research | Leading figure in magnetic–dielectric composite advancements

Research Focus 🔬

High-performance & low-cost magnetic–dielectric composites | Carbon-based multifunctional nanomaterials | Structural design & macro preparation of nanomaterials | Energy conversion system applications | Wide-temperature-range electromagnetic protection materials

Publications 📖

Structural design in reduced graphene oxide (RGO) metacomposites for enhanced microwave absorption in wide temperature spectrum  24 Citations

Interface Engineering of Titanium Nitride Nanotube Composites for Excellent Microwave Absorption at Elevated Temperature 32 Citations

Efficient Production of Graphene through a Partially Frozen Suspension Exfoliation Process: An Insight into the Enhanced Interaction Based on Solid-Solid Interfaces 2 Citations

Conclusion

Dr. Chunhong Gong is a highly qualified candidate for the Best Researcher Award, with significant contributions in magnetic–dielectric composites, carbon-based nanomaterials, and electromagnetic protection materials. Her research impact is evident through high-quality publications, leadership in funded projects, and mentorship. To further strengthen her candidacy, expanding industry collaborations, securing additional global recognitions, and contributing to commercialization efforts could enhance her profile as a top contender for the award.

Jinde Zhang | Bioinspired Functional Surfaces | Best Researcher Award

Mr. Jinde Zhang | Bioinspired Functional Surfaces  | Best Researcher Award

Assistant Professor at University of Massachusetts Lowell,United States

Dr. Jinde Zhang, a Research Assistant Professor at the University of Massachusetts Lowell, specializes in polymer engineering and superhydrophobic coatings. 🌟 With expertise in surface chemistry, drag reduction, and anti-ice adhesion, Dr. Zhang’s research impacts sustainable materials and advanced composites. 🌍 His innovative contributions have been featured in leading scientific journals. 🧪

Publication Profile

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Education🎓

Ph.D. in Plastics Engineering, University of Massachusetts Lowell, 2015.  M.S. in Polymer Chemistry and Physics, University of Science and Technology of China, 2011.  B.S. in Applied Chemistry, Xidian University, China, 2007.

Experience👨‍🔬 

Research Assistant Professor, University of Massachusetts Lowell, 2022–Present. Research Scientist, University of Massachusetts Lowell, 2017–2022  Postdoctoral Researcher, University of Massachusetts Lowell, 2015–2017.

Awards and Honors🏆

Hosted the Polymer Processing Society International Conference, 2018. Region IV Middle School Science Fair Mentor, 2013–2015. Nanodays Volunteer, Boston Museum of Science, 2013–2015.

Research Focus🔬

Superhydrophobic coatings for drag reduction and corrosion resistance. Development of anti-ice adhesion materials.  Recycling impacts on carbon nanotube-filled composites.  Roll-to-roll processing for advanced polymers.

Publications 📖

Tuning Wetting Properties Through Surface Geometry in the Cassie–Baxter State

Journal: Biomimetics, 2025-01-02

DOI: 10.3390/biomimetics10010020

Contributors: Talya Scheff, Florence Acha, Nathalia Diaz Armas, Joey L. Mead, Jinde Zhang

Structure–Property Relationships for Fluorinated and Fluorine-Free Superhydrophobic Crack-Free Coatings

Journal: Polymers, 2024-03-24

DOI: 10.3390/polym16070885

Contributors: Sevil Turkoglu, Jinde Zhang, Hanna Dodiuk, Samuel Kenig, Jo Ann Ratto Ross, et al.

Effect of Composition on Adhesion and Chemical Resistance in Multilayer Elastomer Laminates

Journal: ACS Applied Polymer Materials, 2023-03-30

DOI: 10.1021/acsapm.3c00132

Contributors: Jianan Yi, Mykhel Walker, Jinde Zhang, Christopher J. Hansen, Walter Zukas, Joey Mead

Dynamic Wetting Properties of Silica-Poly(Acrylic Acid) Superhydrophilic Coatings

Journal: Polymers, 2023-02-28

DOI: 10.3390/polym15051242

Contributors: Sevil Turkoglu, Jinde Zhang, Hanna Dodiuk, Samuel Kenig, Jo Ann Ratto, Joey Mead

Wetting Characteristics of Nanosilica-Poly(Acrylic Acid) Transparent Anti-Fog Coatings

Journal: Polymers, 2022-11-01

DOI: 10.3390/polym14214663

Contributors: Sevil Turkoglu, Jinde Zhang, Hanna Dodiuk, Samuel Kenig, Jo Ann Ratto, Joey Mead

The Reduction in Ice Adhesion Using Controlled Topography Superhydrophobic Coatings

Journal: Journal of Coatings Technology and Research, 2022-10-18

DOI: 10.1007/s11998-022-00682-2

Contributors: Yujie Wang, Jinde Zhang, Hanna Dodiuk, Samuel Kenig, Jo Ann Ratto, Carol Barry, Joey Mead

The Effect of Superhydrophobic Coating Composition on Topography and Ice Adhesion

Journal: Cold Regions Science and Technology, 2022-09

DOI: 10.1016/j.coldregions.2022.103623

Contributors: Yujie Wang, Jinde Zhang, Hanna Dodiuk, et al.

Improved Adhesion in Elastomeric Laminates Using Elastomer Blends

Journal: Rubber Chemistry and Technology, 2022-07-01

DOI: 10.5254/rct.22.78968

Contributors: Jianan Yi, Erin Keaney, Jinde Zhang, et al.

Listeria Monocytogenes Biofilm Formation as Affected by Stainless Steel Surface Topography and Coating Composition

Journal: Food Control, 2021-12

DOI: 10.1016/j.foodcont.2021.108275

Contributors: Tingting Gu, Apisak Meesrisom, Jinde Zhang, et al.

Effect of Protein Adsorption on Air Plastron Behavior of a Superhydrophobic Surface
(Details forthcoming or under publication)

Conclusion

Zhang Jinde is an exceptional candidate for the Best Researcher Award due to his innovative contributions to materials science, specifically in the area of superhydrophobic surfaces. His work not only advances academic knowledge but also holds significant potential for real-world applications. Zhang’s ability to bridge interdisciplinary fields and engage with the wider scientific and public community adds further strength to his candidacy. Continued collaboration, diversification of research topics, and enhanced public engagement will elevate his already impressive research trajectory. Therefore, Zhang Jinde is highly deserving of recognition for his groundbreaking work in the realm of polymer engineering and material science.

Xuejie Gao | From Liquid to Solid | Women Researcher Award

Assoc. Prof. Dr Xuejie Gao | From Liquid to Solid | Women Researcher Award

Professor at Dalian Polytechnic University , China

🚀 Dr. Xuejie Gao is an Associate Professor at Dalian Polytechnic University, specializing in 3D printing for lithium-ion and solid-state batteries. 📚 Holding a Ph.D. in Mechanical and Material Engineering from Western University, she leads innovative battery technology research. 🔋 Her work focuses on sustainable energy solutions, advancing energy storage efficiency. ✍️ Dr. Gao has authored high-impact publications in top-tier journals like Advanced Materials and Energy Storage Materials. 🌍 She collaborates with academic and industrial leaders, driving breakthroughs in next-generation battery technologies.

Publication Profile

scopus

Education🎓

Dr. Xuejie Gao earned her Ph.D. in Mechanical and Material Engineering from Western University, where she focused on 3D printing applications in battery development. 🧪 Her research emphasized transitioning from liquid to solid-state batteries to improve energy efficiency. 📈 Dr. Gao completed her undergraduate and master’s studies in Material Science, laying the foundation for her advanced research in sustainable energy storage. 🌱 She received multiple scholarships during her academic journey, highlighting her dedication and exceptional performance in material engineering and energy applications.

Experience👩‍🏫 

Dr. Gao serves as an Associate Professor at Dalian Polytechnic University, engaging in cutting-edge research and teaching. 💡 She has led six ongoing projects and successfully completed three, emphasizing battery innovation. ⚙️ Dr. Gao collaborates with the industry, contributing to two sponsored projects involving battery manufacturing advancements. 🏭 Her expertise extends to guiding Ph.D. students and acting as a Youth Editorial Board member for Renewables and eScience. 🌏 Dr. Gao bridges academia and industry, fostering advancements in sustainable battery technologies.

Awards and Honors🏆 

Dr. Gao has received accolades for her pioneering work in battery technology. 🌟 She is a CTAPI Fellow, recognized for her contributions to energy storage and advanced materials. 📜 Dr. Gao’s publications in high-impact journals reflect her leadership in the field. 🧑‍🔬 Her patents in process further cement her innovative contributions. 🌍 As a member of editorial boards and industry collaborations, Dr. Gao’s influence extends across academic and commercial sectors. 💼 Her role in shaping the next generation of batteries has garnered widespread recognition.

Research Focus🔬 

Dr. Gao’s research targets the development of 3D-printed lithium-ion and solid-state batteries. ⚡ Her focus lies in enhancing battery performance, reducing manufacturing costs, and fostering sustainability. 🧩 Key areas include material development, advanced fabrication techniques, and energy efficiency improvements. 🏭 Collaborating with Shanghai Carbon Industrial Co., she applies her findings to real-world applications. 🚘 Dr. Gao’s innovations aim to transform industries such as electric vehicles and renewable energy storage. 📊 Her interdisciplinary approach integrates material science, engineering, and energy technologies.

Publications 📖

“Separator engineering: Assisting lithium salt dissociation and constructing LiF-rich solid electrolyte interphases for high-rate lithium metal batteries” (2025): Focuses on improving the efficiency of lithium metal batteries by enhancing lithium salt dissociation and creating stable solid electrolyte interphases (SEI).

“Long-lifespan thin Li anode achieved by dead Li rejuvenation and Li dendrite suppression for all-solid-state lithium batteries” (2024): This study introduces methods for rejuvenating dead lithium and suppressing lithium dendrites to improve the lifespan and safety of solid-state batteries.

“Carboxymethyl chitosan composited poly(ethylene oxide) electrolyte with high ion conductivity and interfacial stability for lithium metal batteries” (2024): Examines an electrolyte composite that enhances ion conductivity and stability, crucial for improving the performance and longevity of lithium metal batteries.

“Natural biopolymers derived kinematic and self-healing hydrogel coatings to continuously protect metallic zinc anodes” (2024): Investigates self-healing hydrogel coatings that protect zinc anodes in batteries, enhancing their stability and lifespan.

“Phosphotungstic acid decorated free-standing electrode accelerates polysulfides conversion for high-performance flexible Li–S batteries” (2024): Introduces a novel electrode material that accelerates the conversion of polysulfides, improving the performance of lithium-sulfur (Li-S) batteries.

“All-in-one Janus covalent organic frameworks separator as fast Li nucleator and polysulfides catalyzer in lithium-sulfur batteries” (2024): This research presents a separator made of covalent organic frameworks that acts as both a lithium nucleator and a catalyst for polysulfides in Li-S batteries.

“ZIF-67-Derived Flexible Sulfur Cathode with Improved Redox Kinetics for High-Performance Li-S Batteries” (2024): Focuses on a new sulfur cathode derived from ZIF-67, which improves redox kinetics and enhances the performance of Li-S batteries.

“Lignin-reinforced PVDF electrolyte for dendrite-free quasi-solid-state Li metal battery” (2024): This study uses lignin-reinforced PVDF electrolyte to prevent dendrite formation, improving the performance of quasi-solid-state lithium metal batteries.

“Dual-single-atoms of Pt–Co boost sulfur redox kinetics for ultrafast Li–S batteries” (2024): Highlights the use of Pt-Co single atoms to enhance sulfur redox kinetics, enabling faster and more efficient Li-S batteries.

“Ester-Enhanced Inorganic-Rich Solid Electrolyte Interphase Enabled Dendrite-Free Fast-Charging Lithium Metal Batteries” (2024): Focuses on creating a dendrite-free, fast-charging lithium metal battery by enhancing the solid electrolyte interphase with esters and inorganic materials.

Conclusion

Dr. Gao Xuejie’s expertise in advanced battery technologies, particularly her research on solid-state batteries and the application of 3D printing for energy storage, positions her as an exceptional candidate for the Best Researcher Award. Her continuous pursuit of innovation in the energy sector, along with her substantial academic achievements, makes her a standout researcher deserving of recognition in this category.

Dandan Cui | 2D materails | Best Researcher Award

Ms.Dandan Cui | 2D materails | Best Researcher Award

Assistant research fellow at  Beihang University, China

🌟 Name: Dr. Dandan Cui 🎓 Title: Ph.D. in Physics 🏫 Current Position: Assistant Professor, Beihang University (2020–Present) 📚 Expertise: Two-dimensional materials, surface physicochemistry, and photocatalytic materials. 📖 Publications: Author of highly cited works in journals such as Journal of Materials Chemistry A and ACS Sustainable Chemistry & Engineering. 💡 Contribution: Pioneered advancements in photocatalytic materials, vacancy engineering, and photoelectrocatalysis.

Professional Profiles:

Education🎓

Ph.D. in Physics: Focused on surface physicochemistry and advanced materials research. 📖 Master’s Degree: Specialization in material engineering with research on photocatalysts. 🏫 Undergraduate Degree: Studied Physics with high distinction, fostering a strong foundation in theoretical and experimental science. 📘 Achievements: Graduated with honors and consistently recognized for academic excellence throughout studies.

Experience 🏫

2020–Present: Assistant Professor at Beihang University, advancing research in photocatalytic materials. 🔬 Collaborative Research: Published groundbreaking studies on BiOCl and BiVO4, influencing the field of material science. 📘 Leadership Roles: Mentored graduate students and coordinated multi-disciplinary research projects. 🌐 Outreach: Active participation in international conferences and workshops on advanced materials.

Awards and Honors 🏅

Highly Cited Paper Award: For influential research in Journal of Materials Chemistry A. 🎖️ Young Researcher Award: Recognized for contributions to photocatalysis and material design. 🏆 Research Excellence Award: Honored by Beihang University for innovative achievements. 📜 Invited Reviewer: Prestigious journals in materials science and chemistry.

Research Focus 🧪

Photocatalytic Materials: Design and development of novel semiconductors for energy applications. 🌀 Two-Dimensional Materials: Exploration of physicochemical properties for enhanced functionality. 💡 Vacancy Engineering: Leveraging defects for improved photocatalytic and photoelectrochemical properties. 🔬 Surface Wettability: Investigating its role in photoelectrocatalytic oxygen evolution. 🌍 Sustainability: Advancing green energy technologies through material innovation.

✍️Publications Top Note :

Combination of nanoparticles with single-metal sites synergistically boosts co-catalyzed formic acid dehydrogenation
📝 Authors: Shi, Y.; Luo, B.; Sang, R.; Beller, M.; Li, X.
📚 Journal: Nature Communications, 2024, 15(1), 8189.
Focus: Combines nanoparticles with single-metal sites for formic acid dehydrogenation, enhancing catalytic performance.

Emerging Amorphized Metastable Structures to Break Limitations of 2D Materials for More Promising Electrocatalysis
📝 Authors: Gao, Y.; Liang, H.; Xu, H.; Huang, W.; Lin, L.
📚 Journal: ACS Energy Letters, 2024, 9(8), 3982–4002.
Focus: Reviews metastable 2D materials for improved electrocatalysis.

Emerging Advances of Liquid Metal toward Flexible Sensors
📝 Authors: Qin, J.; Cui, D.; Ren, L.; Shi, Y.; Du, Y.
📚 Journal: Advanced Materials Technologies, 2024, 9(14), 2300431.
Focus: Discusses liquid metal applications in flexible sensors.

Cobalt-Doped Aluminum Aerogels as Photocatalyst Fabricated by a Liquid Metal Reaction Method
📝 Authors: Xu, Q.; Lv, Z.; Zhu, Y.; Hao, W.; Du, Y.
📚 Journal: Journal of Chemical Education, 2024, 101(7), 2850–2856.
Focus: Explores cobalt-doped aerogels for photocatalysis.

Synchronous Pressure-Induced Enhancement in the Photoresponsivity and Response Speed of BiOBr
📝 Authors: Yue, L.; Cui, D.; Tian, F.; Du, Y.; Liu, B.
📚 Journal: Acta Materialia, 2024, 263, 119529.
Focus: Demonstrates enhanced photocatalytic properties of BiOBr under pressure.

Synergistic Surface Engineering of BiVO4 Photoanodes for Improved Photoelectrochemical Water Oxidation
📝 Authors: Wang, S.; Shi, Z.; Du, K.; Du, Y.; Hao, W.
📚 Journal: Small Methods, 2024.
Focus: Investigates BiVO4 photoanodes for water oxidation.

Constructing 2D Bismuth-Based Heterostructure for Highly Efficient Photocatalytic CO2 Reduction
📝 Authors: Xu, R.-H.; Jiang, H.-Y.; Cui, D.-D.; Hao, W.-C.; Du, Y.
📚 Journal: Tungsten, 2024.
Focus: Designs bismuth-based heterostructures for CO2 reduction.

Atomically Dispersed Cobalt/Copper Dual-Metal Catalysts for Synergistically Boosting Hydrogen Generation from Formic Acid
📝 Authors: Shi, Y.; Luo, B.; Liu, R.; Beller, M.; Li, X.
📚 Journal: Angewandte Chemie – International Edition, 2023, 62(43), e202313099.
Focus: Enhances hydrogen generation using dual-metal catalysts.

Bismuth-Based Semiconductor Heterostructures for Photocatalytic Pollution Gases Removal
📝 Authors: Wang, Y.; Du, K.; Xu, R.; Hao, W.; Du, Y.
📚 Journal: Current Opinion in Green and Sustainable Chemistry, 2023, 41, 100824.
Focus: Reviews bismuth-based materials for gas pollution removal.

Operando Reconstruction-Induced CO2 Reduction Activity and Selectivity for Cobalt-Based Photocatalysis
📝 Authors: Zhao, K.; Pang, W.; Jiang, S.; Fu, D.; Zhao, H.
📚 Journal: Nano Research, 2023, 16(4), 4812–4820.
Focus: Studies cobalt-based photocatalysis for CO2 reduction.

Conclusion

Dr. Dandan Cui is a highly suitable candidate for the Best Researcher Award, given her outstanding contributions to two-dimensional materials and photocatalytic material science. Her impactful publications, innovative research, and leadership in collaborative projects make her a strong contender. To further enhance her candidacy, she could expand her recognition, secure research funding, and increase her interdisciplinary and societal contributions. With her trajectory, she is poised to make even more significant advances in her field and inspire future researchers.

Albandari Alrowaily | Material Science | Best Researcher Award

Assist. Prof. Dr Albandari Alrowaily | Infectious diseases | Best Researcher Award

Assist Prof at  Princess Nourah bint Abdulrahmman University, Saudi Arabia

🎓 Assist. Prof. Dr Albandari Alrowaily is an Assistant Professor of Physics at Princess Nourah Bint Abdurrahman University, Saudi Arabia. She specializes in theoretical nuclear and atomic physics with a Ph.D. from the University of North Texas. Starting her career as a high school physics teacher, she progressed through roles such as lecturer, committee member, and advisor. Passionate about education quality, she now serves as the Teaching and Learning Quality Manager. Assist. Prof. Dr Albandari Alrowaily is an advocate for empowering women in science, holding memberships in ISMWS and APS. Her contributions to academia include teaching a wide range of physics courses, mentoring students, and participating in critical departmental activities. Outside work, she actively supports cultural and environmental initiatives.

Professional Profiles:

Education 🎓

Ph.D. in Theoretical Nuclear and Atomic Physics (2021): University of North Texas, Denton, TX, USA. Master’s in Theoretical Nuclear Physics (2008): Princess Nourah Bint Abdurrahman University, Riyadh, Saudi Arabia. Bachelor’s in Physics (1999): Princess Nourah Bint Abdurrahman University, Riyadh, Saudi Arabia. Additional Certificates: Management, document organization, research ethics, teamwork, professional basics, and ESL.

Experience 👩‍🏫

High School Physics Teacher (1999–2000): Al-Jouf City. Teaching Assistant (2001–2007): Princess Nourah University. Committee Member: Grades Monitoring & Interviews (2001–2007). Lecturer (2008–2021): Princess Nourah University. Assistant Professor (2021–Present): Physics Department. Quality Manager (2022–Present): Teaching & Learning, College of Science. Additional Roles: Academic advisor, training supervisor, committee leader, and lab organizer.

Awards and Honors🏅

Ideal Student Awards (1992 & 1995): Al-Jouf Region. Distinguished Student (2000): Princess Nourah University. Travel Awards (2018–2019): DAMOP, UNT, and COS for research presentations. Recognized for exceptional contributions to academic excellence and community engagement.

Research Focus 🔬

Theoretical studies on nuclear and atomic physics, focusing on quantum mechanics, particle interactions, and advanced simulations. Proficient in computational methods using Matlab, Python, and Mathematica for modeling complex systems.  Research on nuclear reactions, atomic energy levels, and spectroscopic analysis. Advocates for interdisciplinary applications of physics to solve global challenges.

✍️Publications Top Note :

High-Performance Supercapacitors (ZnSe/MnSe)

Study: Development of ZnSe/MnSe composites for supercapacitor electrodes using hydrothermal techniques.

Publication: Journal of Physics and Chemistry of Solids, 2024, 49 citations.

Impact: Enhanced capacitive performance through novel material synthesis.

2. g-C3N4/NiIn2S4 for Supercapacitors

Study: Hydrothermal fabrication of g-C3N4/NiIn2S4 composite materials.

Publication: Ceramics International, 2024, 35 citations.

Impact: Promising electrode material with high efficiency.

3. Nonlinear Plasma Waves

Study: Interaction of solitons in pair-ion–electron plasmas using the Hirota method.

Publication: Physics of Fluids, 2023, 30 citations.

Impact: Advances theoretical understanding of electrostatic plasma dynamics.

4. SrCeO3/rGO for Oxygen Evolution Reaction

Study: Hydrothermal synthesis of SrCeO3 nanocomposites for electrocatalysis.

Publication: Fuel, 2024, 27 citations.

Impact: Enhanced catalytic efficiency for clean energy applications.

5. BiFeO3 Supercapacitor Applications

Study: Mn-doped BiFeO3 as an electrode material for supercapacitors.

Publication: Journal of Energy Storage, 2024, 20 citations.

Impact: Novel application of perovskite materials for energy storage.

6. Radiation Shielding Polymers

Study: Optical and mechanical improvements in polyvinyl alcohol composites.

Publication: Journal of Rare Earths, 2023, 18 citations.

Impact: Optimized materials for gamma-ray attenuation.

7. NiS2@SnS2 Nanohybrids

Study: Water-splitting applications of NiS2@SnS2 nanohybrids.

Publication: Materials Chemistry and Physics, 2024, 15 citations.

Impact: Low-cost, efficient electrocatalysts for sustainable energy.

8. Ce-doped SnFe2O4 Supercapacitors

Study: Hydrothermal synthesis enhancing electrochemical performance.

Publication: Electrochimica Acta, 2024, 13 citations.

Impact: Improved energy storage capabilities of supercapacitors.

Conclusion

The candidate has a robust academic background, extensive teaching experience, and proven leadership capabilities, making them a strong contender for the Research for Best Researcher Award. Strengthening the portfolio with focused research publications and demonstrating broader impacts of their work will further enhance their prospects for this prestigious recognition.

Aziza Kuldasheva | material science | Women Researcher Award

Ms. Aziza Kuldasheva | material science | Women Researcher Award

PhD at Wuhan University of technology, China

Aziza Kuldasheva is a dedicated civil engineering researcher and educator with extensive international experience. Holding a PhD position at Wuhan University of Technology in China, she has been deeply involved in advancing building materials and structural engineering. With fluency in multiple languages, including English and Russian, she effectively collaborates across diverse cultural and academic backgrounds. Aziza’s commitment to education is demonstrated through her roles as a lecturer and senior research worker at various prestigious institutions. Her passion for sustainable construction practices and innovative engineering solutions positions her as a key contributor to the field.

Publication Profile

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Education 📚🎓

Aziza Kuldasheva earned her Bachelor’s degree with a GPA of 3.5 and a Master’s degree with a GPA of 3.9 from Samarkand State Architectural and Civil Engineering University in Uzbekistan. She further enhanced her expertise through a scientific internship at Harbin Engineering University in China and completed another Master’s degree at Riga Technical University in Latvia, achieving a GPA of 3.9. Currently, she is pursuing her PhD at Wuhan University of Technology, where she maintains a GPA of 3.54. Her academic journey reflects her strong foundation in civil engineering, supplemented by diverse international experiences that enrich her research and teaching methodologies.

Experience 🏗️🔧🌏

Aziza has a wealth of experience in civil engineering, beginning her career at Samarkand State Architectural and Civil Engineering University, where she served as an Assistant Lecturer, Lecturer, and Senior Research Worker in the Science-Research Laboratory of Building Materials. Between 2010 and 2018, she made significant contributions to various research projects, demonstrating leadership in her field. Aziza also worked as a Senior Research Worker at a similar laboratory in Riga, Latvia, gaining valuable insights into European engineering practices. Notably, she was an expert for the Ministry of Innovative Development of the Republic of Uzbekistan and participated in high-impact projects such as the nonlinear statistical model updating of prestressed concrete beams and bridge health monitoring assessments in Hubei, China. Her multifaceted roles reflect her commitment to advancing knowledge and technology in civil engineering.

Awards and Honors 🏆🎖️🌟

Aziza Kuldasheva has received numerous certificates and accolades throughout her academic and professional journey. She was honored with a certificate for her contributions to the BAU 2023 Exhibition of Building Materials in Germany, recognizing her commitment to innovation in the field. Additionally, she holds various training certificates, including those in quality laboratory testing, concrete technology, and inclusive growth for developing countries, showcasing her dedication to continuous professional development. Her expertise in building materials and color technologies has been validated through certifications from prestigious organizations, enhancing her credibility as a researcher and educator. These achievements underscore her impact on civil engineering and her commitment to improving construction practices, making her a respected figure in her field.

Research Focus 🔬🏗️

Aziza Kuldasheva’s research focuses on enhancing the safety and reliability of civil engineering structures, particularly through advanced modeling and analysis of building materials. Her recent projects include nonlinear statistical model updating and safety evaluations of long-span prestressed concrete beams, emphasizing her innovative approaches to structural engineering challenges. Aziza is particularly interested in the intersection of technology and sustainability in construction practices, aiming to develop effective solutions that address both functional and environmental concerns. Her participation in bridge health monitoring projects illustrates her commitment to real-world applications of her research. As a member of the Building Technology Center at Wuhan University of Technology, she collaborates with industry leaders to bridge the gap between academic research and practical engineering solutions. Aziza’s work not only contributes to academic knowledge but also seeks to enhance the resilience and sustainability of civil engineering practices globally.

Publication  Top Notes

Title: Single-cell transcriptional uncertainty landscape of cell differentiation

Authors: Nan Papili Gao, Olivier Gandrillon, András Páldi, Ulysse Herbach, Rudiyanto Gunawan, et al.

Publication Date: July 20, 2023

Journal: F1000Research

DOI: 10.12688/f1000research.131861.2

ISSN: 2046-1402

Conclusion

Aziza Kuldasheva is a strong candidate for the Women Researcher Award due to her academic achievements, diverse experience, and significant contributions to civil engineering research. By addressing areas for improvement, such as enhancing her publication record and increasing her engagement with the research community, she can further strengthen her position as a leading researcher in her field. Supporting her nomination for this award would not only recognize her efforts but also encourage her continued growth and contributions to engineering and technology, particularly in the context of women’s representation in research.