Lei Zhao | Materials Science | Best Researcher Award

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Mr. Lei Zhao | Materials Science | Best Researcher Award

Associate professor at Longdong University, China

Dr. Zhao Lei is an Associate Professor at the School of Materials Engineering, Longdong University, with a solid foundation in polymer materials and advanced battery technologies. 🎓 Currently pursuing a Ph.D. in Materials Science at Lanzhou University of Technology, he has earned a Master’s in Materials Processing and a Bachelor’s in Polymer Materials Engineering. 🧪 His research is centered on the failure mechanisms and electrolyte affinity of metal electrodes in metal-based batteries. Over the past five years, he has led multiple cutting-edge projects funded by provincial and municipal agencies, focusing on fast-charging hard carbon anodes and novel carbon fiber membranes for sodium-ion and zinc-based energy storage systems. ⚡ His career progression from assistant lecturer to associate professor reflects his dedication and growth in academic research. 📚 Dr. Zhao’s contributions are paving the way for innovations in sustainable energy storage, making him a strong contender for any prestigious research award. 🏆

Professional Profile 

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🎓 Education

Zhao Lei has built an impressive academic background tailored toward materials science and engineering. 📘 He began his journey with a Bachelor’s degree in Polymer Materials and Engineering from Taishan University (2006–2010), establishing his expertise in macromolecular structures. He then pursued a Master’s in Materials Processing Engineering at Lanzhou University of Technology (2010–2013), where he specialized in materials fabrication and behavior. 🔬 Currently, he is a Ph.D. candidate in Materials Science at the same institution, diving deeper into energy materials, particularly those used in batteries and electrochemical systems. 🔋 This progressive academic path showcases a consistent focus on materials innovation and sustainability. His education blends theoretical knowledge with practical application, laying the groundwork for advanced research in battery failure mechanisms and energy storage materials. Zhao Lei’s dedication to continuous learning and specialized education demonstrates his commitment to academic and technological excellence. 🧑‍🎓

👨‍🏫 Professional Experience

Zhao Lei’s professional trajectory at Longdong University is a testament to his dedication and evolving expertise. 📈 Beginning as a Teaching Assistant in 2013, he steadily advanced through roles in the School of Mechanical Engineering and the School of Intelligent Manufacturing, ultimately becoming an Associate Professor in the School of Materials Engineering by 2024. 🏫 His teaching and research roles span over a decade, during which he has mentored students and engaged in forward-thinking research projects in materials and battery engineering. His cross-disciplinary teaching experience, from mechanical foundations to smart manufacturing, reflects his ability to adapt to emerging educational needs and integrate materials science across domains. ⚙️ Now, in his current role, Zhao is deeply engaged in pioneering studies on electrode materials, with an emphasis on real-world applications in energy storage. His career arc demonstrates resilience, leadership, and academic maturity. 💼

🔬 Research Interest

Zhao Lei’s research is driven by the pressing need for efficient and stable energy storage solutions. 🌍 His primary focus lies in understanding the failure mechanisms of metal anodes in metal-based batteries—a crucial factor in the longevity and safety of next-generation battery systems. 🔋 He also investigates how electrode materials interact with electrolytes, particularly enhancing electrolyte affinity to suppress battery degradation. His projects include studies on asphalt-based hard carbon for fast-charging sodium-ion batteries and zinc-metal anode stabilization for aqueous systems. 💡 He explores cutting-edge techniques such as hierarchical porous carbon microspheres and nanostructured carbon fiber membranes for supercapacitors and energy storage. These research themes not only address current industrial challenges but also align with global efforts toward green and sustainable energy technology. ⚡ Zhao’s work bridges theoretical chemistry and industrial-scale innovation, highlighting his capability as a forward-looking energy materials scientist. 🌱

🏅 Awards and Honors

Although specific award titles are not listed, Zhao Lei has received consistent support and recognition through competitive research grants from the Gansu Provincial Science and Technology Department and the Qingyang Science and Technology Bureau. 📑 The successful leadership of four funded research projects, including high-profile key R&D initiatives and natural science foundation programs, reflects trust in his scientific vision and execution skills. 💼 These grants are highly selective, signaling his capacity to design impactful studies, secure funding, and deliver valuable results. His progression to Associate Professor is itself an academic honor, recognizing both his scholarly contributions and institutional service. 🏆 While formal accolades may follow, Zhao Lei’s growing portfolio of research and grants already positions him as a leader in his field. His career continues to gain momentum, and he is well-poised to achieve further distinctions in battery technology and materials science. 🧠

📚 Publications Top Note 

1. Intercalation mechanism of surfactants in vanadium pentoxides interlayer framework for improving electrochemical performance of zinc metal batteries

  • Authors: [Names not provided; likely includes the user or research team]

  • Year: 2025

  • Citations: 0

  • Source: Journal of Alloys and Compounds

  • Summary:
    This study investigates how surfactant molecules can be intercalated into vanadium pentoxide (V₂O₅) layers to improve the structural stability and electrochemical performance of zinc metal batteries. The modified framework enhances zinc ion diffusion and cycle life.

2. Controllable Nitrogen-Doped Hollow Carbon Nano-Cage Structures as Supercapacitor Electrode Materials

  • Authors: [Names not provided]

  • Year: 2025

  • Citations: 0

  • Source: Molecules

  • Summary:
    The paper reports the synthesis of nitrogen-doped hollow carbon nano-cages. Their high surface area and tailored pore structure make them promising electrode materials for high-performance supercapacitors with enhanced capacitance and cycling stability.

3. Lithium ion mediated competitive mechanism in polymer solution for fast phase-inversion toward advanced porous electrode materials

  • Authors: [Names not provided]

  • Year: 2025

  • Citations: 1

  • Source: Energy Storage Materials

  • Summary:
    This article presents a novel lithium-ion-driven mechanism in polymer solutions that accelerates phase inversion to create highly porous electrode structures. These are beneficial for applications requiring fast ion transport in batteries or supercapacitors.

4. Improving diffusion kinetics of zinc ions/stabilizing zinc anode by molecular slip mechanism and anchoring effect in supramolecular zwitterionic hydrogels

  • Authors: [Names not provided]

  • Year: 2025

  • Citations: 1

  • Source: Journal of Colloid and Interface Science

  • Summary:
    This research explores the use of zwitterionic hydrogels to enhance zinc ion mobility and stabilize zinc anodes. The “molecular slip” mechanism and anchoring interactions within the hydrogel matrix reduce dendrite formation and improve cycling performance.

5. Enhanced charge separation in a CoOx@CdS core-shell heterostructure by photodeposited amorphous CoOx for highly efficient hydrogen production

  • Authors: [Names not provided]

  • Year: 2025

  • Citations: 0

  • Source: New Journal of Chemistry

  • Summary:
    This article details the fabrication of a CoOx@CdS core-shell heterostructure with amorphous CoOx photodeposited on the surface. This structure improves charge carrier separation and transfer, enabling more efficient photocatalytic hydrogen evolution.

✅ Conclusion

Zhao Lei is a rising star in the field of materials science and electrochemical energy storage. 🌟 His educational foundation, professional journey, and focused research interests position him at the forefront of sustainable battery innovation. With over a decade of teaching and research experience, he has successfully transitioned into a leadership role within academia, simultaneously contributing to fundamental research and real-world energy applications. 🔄 His grant acquisition and active research trajectory make him a promising candidate for future collaborations, industrial partnerships, and academic awards. As energy challenges mount globally, Zhao’s work on metal anode stabilization and advanced carbon materials holds the potential to impact both science and society. 🌐 He exemplifies the qualities of a best researcher awardee—dedicated, innovative, and impactful. 🏅

Jing Zhang | Materials Science | Best Researcher Award

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Ms. Jing Zhang | Materials Science | Best Researcher Award

Lecturer at Shanxi Normal University, China

Jing Zhang is a dedicated researcher and lecturer at Shanxi Normal University, specializing in organic electronics and molecular materials. She earned her Ph.D. in Physical Chemistry from the Institute of Chemistry, Chinese Academy of Sciences (2018-2022) under the mentorship of Prof. Lang Jiang. She previously completed her Master’s in Physics at Hunan University (2015-2018) and her Bachelor’s in Physics. Her research focuses on organic semiconductor materials, neuromorphic devices, and molecular doping. She has led multiple funded research projects and published extensively in high-impact journals, contributing significantly to advanced materials science and device engineering.

Professional Profile:

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Education & Experience 📚🔬

  • Ph.D. in Physical Chemistry (2018-2022) 🏛️
    Institute of Chemistry, Chinese Academy of Sciences

    • Focus: Organic semiconductors and neuromorphic devices

    • Advisor: Prof. Lang Jiang 🎖️

  • Master’s in Physics (2015-2018) 🏛️
    Hunan University

    • Specialization: Semiconductor physics and nanomaterials

    • Advisor: Prof. Guifang Huang 📡

  • Lecturer (2022-Present) 🎓
    Shanxi Normal University, College of Chemistry and Materials Science

    • Research on organic electrochemical transistors & bioelectronics

    • Development of 2D molecular crystals & neuromorphic computing devices 🧠

  • Researcher (2016-2022) 🔬
    Institute of Chemistry, Chinese Academy of Sciences

    • Investigated porphyrin-based organic transistors & nanomaterials

    • Advanced graphene-like nanostructures for functional devices

Professional Development 📈💡

Jing Zhang has actively contributed to organic semiconductor research, pioneering advancements in molecular doping, neuromorphic devices, and biosensors. As the principal investigator of multiple projects funded by Shanxi Province and National Research Foundations, she has led breakthrough studies in organic single-crystal transistors and 2D molecular materials. Her expertise spans device fabrication, charge transport mechanisms, and nanomaterials for energy applications. Her research has been published in top journals like Advanced Materials, JACS, and ACS Materials Letters, reflecting her influence in next-generation electronics and bio-integrated systems. She also mentors students, fostering innovation in organic optoelectronics and flexible electronics.

Research Focus 🧪⚛️

Jing Zhang’s research is centered on organic electronics, particularly semiconductor devices and molecular materials. She explores:

  • Organic Electrochemical Transistors (OECTs) for bioelectronic sensing 🏥

  • Porphyrin-Based Organic Semiconductors for neuromorphic computing 🧠💡

  • Molecular Doping Techniques for high-performance organic transistors ⚙️

  • Two-Dimensional (2D) Molecular Crystals for next-gen optoelectronic applications 🌟

  • Functional Nanomaterials for sustainable energy conversion and storage ⚡🔋

Her innovative work bridges chemistry, materials science, and applied physics, pushing the limits of organic and molecular electronics for real-world applications.

Awards & Honors 🏆🎖️

  • Chinese Academy of Sciences Youth Science Award – Excellence Prize (2020-2021) 🏅
    Recognized for outstanding contributions to organic semiconductor research

  • University of Chinese Academy of Sciences “Three-Good” Student Award (2020) 🎓
    Honored for academic excellence and research achievements

  • Marie Curie Seal of Excellence – Aalborg University (2024) 🌍✨
    Awarded for outstanding research contributions in materials science and electronics

Publication Top Notes

  1. “Adhered-3D Paper Microfluidic Analytical Device Based on Oxidase-Mimicking Activity of Co-Doped Carbon Dots Nanozyme for Point-of-Care Testing of Alkaline Phosphatase”

    • Journal: Analytica Chimica Acta​

    • Publication Date: December 2024​

    • DOI: 10.1016/j.aca.2024.343378​

    • Summary: This study introduces a three-dimensional paper-based microfluidic analytical device (3D-μPAD) leveraging the oxidase-mimicking activity of cobalt-doped carbon dots (Co-CDs) nanozyme. The device is designed for point-of-care testing of alkaline phosphatase (ALP), an important biomarker. The Co-CDs nanozyme catalyzes the oxidation of colorimetric substrates, enabling the visual detection of ALP levels. The 3D-μPAD offers a simple, cost-effective, and efficient method for ALP detection, suitable for clinical diagnostics.​

  2. “Solution-Processed Monolayer Molecular Crystals: From Precise Preparation to Advanced Applications”

    • Journal: Precision Chemistry​

    • Publication Date: August 26, 2024​

    • DOI: 10.1021/prechem.3c00124​

    • Summary: This article reviews the advancements in the preparation and application of solution-processed monolayer molecular crystals. It discusses precise fabrication techniques and explores their potential in various advanced applications, including electronics and optoelectronics. The study emphasizes the significance of molecular orientation and crystallinity in determining the performance of these materials.​

  3. “Low Contact Resistance Organic Single‐Crystal Transistors with Band‐Like Transport Based on 2,6‐Bis‐Phenylethynyl‐Anthracene”

    • Journal: Advanced Science​Jing 

    • Publication Date: March 18, 2024​

    • DOI: 10.1002/advs.202400112​

    • Summary: This research presents the development of organic single-crystal transistors utilizing 2,6-bis-phenylethynyl-anthracene. The study focuses on achieving low contact resistance and demonstrates band-like transport behavior, which is crucial for high-performance organic electronic devices. The findings contribute to the understanding and improvement of charge transport in organic semiconductors.​

  4. “Cation Etching-Induced Deep Self-Reconstruction to Form a Polycrystalline Structure for Efficient Electrochemical Water Oxidation”

    • Journal: Chemical Communications​

    • Publication Date: 2024​

    • DOI: 10.1039/d4cc02009j​

    • Summary: This study explores a cation etching-induced self-reconstruction process that leads to the formation of a polycrystalline structure, enhancing the efficiency of electrochemical water oxidation. The research provides insights into material design strategies for developing high-performance catalysts in water-splitting applications.​

  5. “Diazulenorubicene as a Non‐Benzenoid Isomer of Peri‐Tetracene with Two Sets of 5/7/5 Membered Rings Showing Good Semiconducting Properties”

    • Journal: Angewandte Chemie International Edition​

    • Publication Date: September 25, 2023​

    • DOI: 10.1002/anie.202304632​

    • Summary: This research introduces diazulenorubicene, a non-benzenoid isomer of peri-tetracene featuring two sets of 5/7/5 membered rings. The study highlights its good semiconducting properties, suggesting potential applications in organic electronics. The unique structural attributes of diazulenorubicene contribute to its electronic characteristics.

Conclusion

Jing Zhang’s track record in high-impact research, leadership in project execution, and innovative contributions to organic electronics and energy materials make her a strong candidate for the Best Researcher Award. Her work has not only advanced fundamental understanding but also has potential applications in next-generation electronic and energy devices.

Sijo A K | Materials Science | Best Researcher Award

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Dr. Sijo A K | Materials Science | Best Researcher Award

Assistant Professor at Mary Matha Arts and Science College Wayanad, India

Dr. sijo a. k. is a dedicated researcher and academician affiliated with Mary Matha Arts and Science College, Wayanad. With a strong background in materials science, he has contributed significantly to nanomaterials, ferrites, and thin-film research. His expertise spans structural, optical, magnetic, and electrical properties of advanced materials. With an H-index of 9 and 170 citations, his work is widely recognized in reputed journals like Physica Scripta, Applied Nanoscience, and Journal of Magnetism and Magnetic Materials. Passionate about solar energy, nanotechnology, and spinel materials, he continues to drive innovation in materials research. 🔬📚

Professional Profile:

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Education & Experience

🎓 Education:

  • Ph.D. in Materials Science 🏅

  • Master’s Degree in Physics 🧑‍🏫

  • Bachelor’s Degree in Physics 📖

👨‍🏫 Experience:

  • Assistant Professor, Mary Matha Arts and Science College, Wayanad 📚

  • Published 24+ research papers in high-impact journals 📑

  • Expertise in nanotechnology, ferrites, thin films, and solar energy materials 🌞🔬

  • Active reviewer for leading scientific journals 📝

Professional Development

🚀 Dr. sijo a. k. has continuously advanced his expertise through collaborative research, academic mentoring, and scientific publishing. His work focuses on advanced nanomaterials, thin films, and energy-efficient materials, pushing the boundaries of applied physics and material science. He has reviewed research for multiple high-impact journals and remains actively engaged in scientific conferences, workshops, and symposiums. Through international collaborations, he has co-authored papers with researchers from Ukraine, India, and Europe, contributing to cutting-edge material innovations. His commitment to academic excellence and interdisciplinary research makes him a key figure in modern material science. 🔬🌍

Research Focus

🧪 Dr. sijo a. k.’s research centers on advanced nanomaterials and thin films, with a particular interest in ferrites, spinel materials, and semiconductor applications. His studies explore magnetic, structural, and optical properties to enhance photocatalysis, energy storage, and solar cell efficiency. His contributions to copper tin sulfide (CTS) thin films and ferrite-based nanomaterials aim to develop sustainable, efficient materials for future energy applications. With an interdisciplinary approach, he integrates computational modeling, synthesis techniques, and experimental validation to unlock new possibilities in materials science. 🌍⚡

Awards & Honors

🏅 United Group Research Award for outstanding research contributions 🏆
🔬 Best Paper Awards in international conferences 📜
🌍 Recognized as a leading reviewer for top-tier journals 📝
📚 Highly Cited Researcher in materials science and nanotechnology 🎖
🎓 Ph.D. Fellowship for research in nanomaterials and thin films 🔍

Publication Top Notes

  1. “Impact of Cation Distribution in Shaping the Structural and Magnetic Characteristics of Ni-Cu Ferrite”

    Authors: J. Mazurenko, Sijo A. K., L. Kaykan, J. M. Michalik, Ł. Gondek, E. Szostak, and A. Zywczak​X-MOL

    Journal: Physica Scripta​Eureka Mag+6ScienceDirect+6ScienceDirect+6

    Publication Date: March 1, 2025​

    DOI: 10.1088/1402-4896/adb2c3​

    Summary: This study presents the synthesis, characterization, and magnetic properties of Cu₁₋ₓNiₓFe₂O₄ nanocrystalline ferrites (0.0 ≤ x ≤ 1.0) prepared using the sol–gel autocombustion method at neutral pH. The research focuses on how varying the cation distribution between copper and nickel influences the structural and magnetic characteristics of the resulting ferrites. ​

  2. “Post-Annealing-Induced Enhancement of Structural, Optical and Electrical Properties in Copper Tin Sulphide (CTS) Thin Films”

    Authors: Sijo A. K. and P. Sapna​

    Journal: Physica Scripta​

    Publication Date: March 1, 2025​

    DOI: 10.1088/1402-4896/adb2c5​

    Summary: This research investigates the impact of post-annealing on the structural, optical, and electrical properties of Copper Tin Sulfide (CTS) thin films. The CTS thin films were synthesized using the Successive Ionic Layer Adsorption and Reaction (SILAR) method and then annealed at temperatures of 100 °C, 200 °C, and 300 °C. Characterization techniques such as XRD, SEM, FTIR, UV–vis-NIR, and EDAX revealed that increasing the annealing temperature improved crystallinity, optical transmittance, and electrical conductivity. The films exhibited high bandgap energies (3.68–3.90 eV) and strong UV absorption, suggesting potential applications in high-performance optoelectronic devices.

  3. “Copper Precursor-Driven Variations in Structural, Optical and Electrical Properties of SILAR-Deposited CTS Thin Films”

    Authors: Information not available​

    Journal: Physica Scripta​

    Publication Date: January 1, 2025​

    DOI: 10.1088/1402-4896/ada079​

    Summary: Specific details about this paper are not available in the provided information.​

  4. “Synthesis and Characterization of Copper Ferrite Nanoparticles for Efficient Photocatalytic Degradation of Organic Dyes”

    Authors: Information not available​

    Journal: Journal of Nanotechnology​

    Publication Date: January 2025​

    DOI: 10.1155/jnt/8899491​

    Summary: Specific details about this paper are not available in the provided information.​

  5. “Enhancing Copper-Tin Sulfide Thin Films with Triethanolamine as a Complexing Agent”

    Authors: Information not available​

    Journal: Journal of Molecular Structure​ScienceDirect+4ScienceDirect+4ScienceDirect+4

    Publication Date: 2025​X-MOL+1SpringerLink+1

    DOI: 10.1016/J.MOLSTRUC.2025.141812​

    Summary: Specific details about this paper are not available in the provided information.

Conclusion

Dr. Sijo A. K. is an emerging researcher with notable contributions to magnetic materials, nanotechnology, and renewable energy applications. While his H-index and citation count are moderate compared to top-tier researchers, his consistent publishing in high-quality journals and focus on sustainable energy solutions makes him a strong contender for young or mid-career researcher awards. If the award criteria focus on impact, innovation, and sustained contributions, he is a suitable candidate, particularly in material sciences. However, for top-tier international “Best Researcher” awards, a higher H-index and citation impact might be needed.