Mohd Ashraf Bujran | Material Science | Best Researcher Award

Mr. Mohd Ashraf Bujran, University of kashmir srinagar , India.

Mohd Ashraf Bujran is a dedicated Ph.D. scholar in the Department of Physics at the University of Kashmir, specializing in Experimental and Computational Material Science. His research focuses on the ferroelectric, optical, and dielectric properties of metal-organic frameworks. With a strong academic background, he has worked as a Junior Research Fellow under an SERB-sponsored project. Passionate about scientific exploration, he has attended international conferences and training programs. Proficient in various experimental techniques, he actively contributes to advancing material science. Outside academia, he enjoys reading, photography, and cycling. His commitment to research continues to shape his journey in physics.

Publivation Profiles

Scopus

Orcid

Education and Experience

Ph.D. Scholar (2023 – Present) – University of Kashmir, Department of Physics
Junior Research Fellow (JRF) (2021-2023) – SERB-funded project on ferroelectric & optical properties of rare-earth metal-organic frameworks
M.Sc. in Physics (2011) – University of Kashmir (76.2%)
B.Sc. in Non-Medical (2013) – University of Kashmir (60.6%)
12th (Non-Medical) (2017) – JK BOSE (60.6%)
10th (General) (2020) – JK BOSE (62.2%)

Suitability summary

Mr. Mohd Ashraf Bujran, a dedicated Ph.D. scholar at the Department of Physics, University of Kashmir, has made significant contributions to the field of Experimental and Computational Material Science. His research focuses on ferroelectric, optical, and dielectric properties of metal-organic frameworks, as well as Density Functional Theory (DFT) applications. With an excellent academic background, competitive exam qualifications (CSIR-NET & JKSET), and hands-on experience with advanced experimental techniques, Dr. Bujran is an outstanding candidate for the Best Researcher Award. His impactful research and active participation in scientific conferences highlight his dedication to advancing materials science.

Professional Development

Mohd Ashraf Bujran is committed to continuous learning and skill enhancement in material science. He has participated in prestigious conferences such as the 27th International Conference of International Academy of Physical Science (CONIAPS XXVII) and specialized training programs like STUTI and Resonance Science Outreach Program. His expertise includes handling advanced instruments such as VSM, dielectric and ferroelectric measurement tools, crystal growth techniques, and thin film preparation. With a passion for scientific discovery, he actively engages in collaborative research and knowledge-sharing, contributing to advancements in materials physics. His hands-on experience and computational skills make him a versatile researcher.

Research Focus

Mohd Ashraf Bujran’s research lies in Experimental and Computational Material Science, focusing on the ferroelectric, optical, and dielectric properties of metal-organic frameworks (MOFs). His work integrates density functional theory (DFT) to explore the electronic structures of materials, aiming for advancements in energy storage, sensors, and optoelectronic applications. His contributions bridge experimental techniques with computational modeling, leading to innovative insights into material behavior. By combining thin film preparation, crystal growth, and dielectric analysis, he plays a crucial role in developing next-generation functional materials. His research supports technological advancements in sustainable and high-performance materials.

Awards And Honours

CSIR NET 2021 – All India Rank (AIR: 210)
JKSET 2023 – Qualified for eligibility in research & teaching
Junior Research Fellowship (JRF) – SERB-sponsored project in Material Science (2021-2023)
Invited Participant – STUTI Training Program on Scientific & Technological Infrastructure
Best Presentation Recognition – Participated in International Conferences on Physics

Publication Top Noted

Terbium-doped metal-organic frameworks: Dielectric and ferroelectric properties with enhanced electrochemical sensing for heavy metal ion detection (2025) – Journal of Solid State Chemistry
Synthesis and optimization of Eu³⁺: ZnO and pristine ZnO based thin film through sol-gel technique for an improved visible light photodetection (2024) – Materials Science and Engineering: B
A comprehensive study of ferroelectric, dielectric and optical properties of europium-doped SBD metal-organic framework (2024) – Results in Optics
Exploration of the optical characteristics in sol-gel synthesized europium-doped zinc oxide thin films for potential optoelectronic use: a comprehensive characterization approach (2024) – Physica Scripta
Optical, thermal and semiempirical study of Samarium bi-tartrate trihydrate (2024) – Current Applied Physics

Ho Kyung Lee | Quantum Dots | Best Researcher Award

Dr. Ho Kyung Lee, Korea Basic Science Institute, South Korea.

Lee Ho Kyung (이호경) is a Postdoctoral Researcher in the Division of Analytical Science at the Korea Basic Science Institute. He earned his Ph.D. in Chemical and Biological Engineering from Gachon University, where he contributed significant research on quantum dots and eco-friendly light-converting systems. With a passion for materials engineering, he has published widely on quantum dots, plasmonic nanostructures, and advanced transistors, amassing an h-index of 4 from his 12 papers. His work is central to next-gen materials and device applications, making him a promising innovator in sustainable material sciences.

Suitability For The Award

Dr. Lee, Ho Kyung is a highly qualified candidate for the Best Researcher Award, demonstrating significant contributions to the fields of nanotechnology, materials science, and renewable energy. With a strong educational background in Chemical and Biological Engineering, culminating in a Ph.D. from Gachon University, Dr. Lee has established himself as a dedicated researcher committed to advancing sustainable technologies.

Professional Development

Lee Ho Kyung has developed a specialized expertise in the synthesis and application of advanced materials for sustainable technologies. His focus on quantum dots, particularly cadmium-free blue-emissive varieties, aligns with global eco-innovation goals. As a postdoc, he is diving deeper into analytical sciences, enhancing his experience with material analysis and smart IoT materials. Lee’s publications in leading journals highlight his skills in fabricating quantum dot systems for light conversion and transistors with innovative charge transport mechanisms, making him a versatile and impactful researcher in material sciences.

Research Focus

Lee’s research centers around quantum dots, nanomaterials, and sustainable device engineering. He explores quantum dot bandgap tuning to enable new applications, working on eco-friendly, cadmium-free blue-emissive quantum dots for green lighting technologies. His work on fiber-optic sensing using plasmonic nanostructures addresses high-sensitivity detection needs, with innovations in anti-ambipolar transistors for next-gen electronics. His recent advances in photo-induced behaviors of heterostructured nanorods are pioneering contributions in optical materials, making his research essential in sustainable, efficient, and responsive devices.

Awards and Honors

Journal Publications: 12 articles, h-index of 4
Top-Cited Paper: Recognition for influential work on bandgap engineering and eco-friendly quantum dots
Featured Articles: Numerous publications in ACS Sustainable Chem. Eng., Adv. Optical Mater.,

Publications

Fiber-Optic Sensing System Using Polyhedral Plasmonic Nanostructures as SERS-Active Substrates – ACS Applied Nano Materials, 2024, cited by 0
Charge Transport Advancement in Anti-Ambipolar Transistors: Spatially Separating Layer Sandwiched between N-Type Metal Oxides and P-Type Small Molecules – Advanced Functional Materials, 2024, cited by 1
Heterostructure of Reduced Titanium Dioxide Nanorods and Small Molecules Leads to Photo-Induced Negative Differential Resistance Behaviors – Advanced Optical Materials, 2024, cited by 0
Insight into the Synthetic Mechanism of Cadmium-Free Blue-Emissive Quantum Dots for Eco Light-Converting System – ACS Sustainable Chemistry and Engineering, 2024, cited by 1
Logical Optimization of Metal-Organic Frameworks for Photocatalytic Degradation of Organic Pollutants in Water via Box-Behnken Design – ACS ES&T Water, 2024, cited by 1
One-Pot Synthesis and Characterization of CuCrS2/ZnS Core/Shell Quantum Dots as New Blue-Emitting Sources – Materials, 2023, cited by 4
Simply Fabricated Inexpensive Dual-Polymer-Coated Fabry-Perot Interferometer-Based Temperature Sensors with High Sensitivity – Sensors, 2021, cited by 4
High Sensitivity Temperature Sensor Based on Fresnel Reflection with Thermosensitive Polymer: Control of Morphology and Coating Thickness – Japanese Journal of Applied Physics, 2020, cited by 9