Francis Rolphe Zemtchou – Energy Harvesting – Excellence in Research 

Published on by Global Physics Awards

Mr. Francis Rolphe Zemtchou began his academic journey in physics at the University of Dschang, Cameroon, where he earned his Bachelor of Science (B.Sc.) degree in 2017. His dedication to the field continued as he pursued a Master of Science (M.Sc.) degree in Physics from 2017 to 2019, focusing on the dynamics and vibration control of cantilever beams subjected to external flow. Currently, he is pursuing a PhD in Physics (2019–current) at the University of Dschang, Cameroon, with a project titled "Contribution to the Dynamic Study of Cantilever Sensors: Synchronization of Systems and Energy Harvesting."

💼 Professional Endeavors

As part of his professional endeavors, Mr. Zemtchou has worked extensively in research and teaching. His PhD research involves investigating energy harvesting from mechanical oscillators (such as pendulums, beams, and coupled systems) using piezoelectric and electromagnetic transduction principles. He is also conducting research on the synchronization of mechanical oscillators, such as Huygens pendulums and coupled inverted pendulums, contributing to the development of systems that can harness energy from vibratory motions. Additionally, his work on cantilever beam vibrations and their control through feedback laws contributes to the field of mechanical vibrations.

🔬 Contributions and Research Focus

Mr. Zemtchou’s primary research focus is on energy harvesting, specifically from vibratory energy in mechanical oscillators. His work investigates the potential of mechanical oscillators (such as pendulums and beams) to generate electrical energy via piezoelectric and electromagnetic transducers. He is also exploring the synchronization of mechanical oscillators, particularly in coupled systems, and how these systems can be optimized for energy harvesting. His contributions to the dynamics of cantilever sensors and the application of feedback laws in controlling vibrations have the potential to impact various practical engineering applications.

🌍 Impact and Influence

Mr. Zemtchou’s research has the potential to make a significant impact in the field of energy harvesting, particularly in the development of sustainable systems that can convert mechanical vibrations into electrical energy. By exploring new methods of synchronization in mechanical systems and improving the efficiency of vibratory energy harvesting, his work could influence both academic research and industrial applications. His focus on materials science, specifically the creep behavior of wood materials, further expands his contributions to a multidisciplinary approach to energy harvesting and mechanical systems.

🏆Academic Cites

Though his research is still in progress, Mr. Zemtchou's work in energy harvesting is beginning to gain attention in the academic community. His studies on the synchronization of oscillators and the use of piezoelectric and electromagnetic transduction principles have been referenced by peers in the field. As he continues to publish his findings, his contributions are likely to increase in visibility and academic citation.

🌟 Legacy and Future Contributions

Looking ahead, Mr. Zemtchou's future contributions are poised to continue pushing the boundaries of energy harvesting technology. His ongoing research into synchronization and vibratory energy conversion has the potential to significantly influence the development of energy-efficient systems in mechanical engineering. As he completes his PhD and engages with the broader academic and industrial communities, his legacy will be built upon further advancements in energy harvesting techniques, which could lead to more sustainable and efficient energy solutions.

📝Energy Harvesting

Mr. Zemtchou’s research in energy harvesting is focused on the development of systems that can efficiently convert mechanical vibrations into usable energy. Through his exploration of the synchronization of oscillators and his work with piezoelectric and electromagnetic transduction, he is making significant contributions to the field of energy harvesting. As his research continues, it is expected to play a major role in advancing energy harvesting technologies and their application in various engineering disciplines.

Notable Publication

📝Piezoelectric energy harvesting from beam vibrations induced by an aerodynamic force generated by a fluctuating wind

Authors: F.R. Zemtchou, Francis Rolphe; J.S. Mabekou Takam, Jeanne Sandrine; P.H. Louodop Fotso, Patrick Hervé; P.K. Talla, Pierre Kisito

Journal: Chaos, Solitons and Fractals

Year: 2025

Lili Zhao – Dielectrics – Best Researcher Award 

Published on by Global Physics Awards

Professor Lili Zhao’s academic journey began with a strong foundation in materials science and electrical engineering. From her early academic pursuits, she demonstrated an aptitude for innovation in functional materials, focusing especially on dielectrics and energy storage systems. Through rigorous academic training and research engagements, she cultivated a deep interest in polymer-based composites and ceramic filler designs, which later became the cornerstone of her scholarly contributions.

💼 Professional Endeavors

Prof. Zhao has established herself as a pioneering figure in the domain of dielectrics and energy storage materials. Currently leading research initiatives at the frontier of flexible capacitor technology, her professional endeavors are focused on engineering advanced dielectric materials with high energy density and mechanical flexibility. Her expertise spans composite film synthesis, interface engineering, and structural innovation, as seen in her introduction of the egg-like ceramic filler Ba₀.₃₄Sr₀.₅₁Ca₀.₁₅Zr₀.₁Ti₀.₉O₃-Y@Ba₀.₃₄Sr₀.₅₁Ca₀.₁₅Zr₀.₁Ti₀.₉O₃-Mn@ZrO₂ (BSCZT-Y@BSCZT-Mn@ZrO₂). Her work not only contributes to academic knowledge but also addresses practical challenges in miniaturizing flexible electronic devices.

🔬 Contributions and Research Focus

Prof. Zhao’s contributions are groundbreaking, particularly in designing high-performance flexible dielectrics. Her latest research introduces a novel multilayered ceramic filler architecture, mimicking an “egg effect,” to significantly enhance effective polarization (ΔP) and discharged energy storage density in PVDF-based composites. By leveraging the synergy between donor-rich cores, acceptor-rich shells, and wide bandgap oxide “eggshells,” she achieved an ultrahigh discharged energy density of 33.2 J/cm³, a ΔP of 28.5 μC/cm², and exceptional bending endurance. Her research focus lies in reducing leakage currents through deep electron traps and promoting α-to-β phase transitions in PVDF, all contributing to superior dielectric performance.

🌍 Impact and Influence

The impact of Prof. Zhao's work in dielectrics has been widely recognized within the global materials science and electronics communities. Her novel ceramic filler strategy sets new standards for the development of flexible capacitors, paving the way for low-power wearable and flexible electronic devices. The demonstrated ability of her composite films to retain over 92% capacitance after 600 full bends signifies a remarkable advancement in both durability and performance. Her interdisciplinary influence spans electronic engineering, materials chemistry, and applied physics.

🏆Academic Cites

Prof. Lili Zhao’s publications have attracted significant academic attention, being cited extensively in journals related to materials science, electronics, and dielectrics. Her development of deep electron traps and core-shell doping mechanisms in dielectric composites has become a reference point for ongoing research in flexible energy storage. The high citation frequency underscores the academic value and technical originality of her work, particularly in the context of improving energy density without compromising mechanical flexibility.

🌟 Legacy and Future Contributions

Prof. Zhao’s legacy is being shaped by her strategic vision and technical ingenuity in the realm of flexible dielectrics. Looking forward, she is poised to expand her research to multifunctional composites, smart sensors, and scalable capacitor devices. Her future contributions will likely integrate artificial intelligence-driven design and green materials, reinforcing her leadership in advancing sustainable, high-performance electronic components. Her continued mentorship and collaborations will nurture the next generation of researchers in dielectric materials science.

📝Dielectrics

Prof. Lili Zhao’s pioneering work in dielectrics has redefined the potential of ceramic-polymer composites for flexible electronics. Her breakthrough in multilayer ceramic filler design has positioned dielectrics at the forefront of high-performance capacitor research. By combining innovation, endurance, and scalability, she continues to set benchmarks in the field of dielectrics, enabling a future of smarter, smaller, and more flexible electronic devices.

Notable Publication

📝Natural Mechanical Energy-Induced Porous PANI/(Ba₀.₈₅Ca₀.₁₅)(Zr₀.₁Ti₀.₉)O₃/PVDF Excellent Piezoelectric-Catalyzed Degradation of Dyes

Authors: Caiming Wang, Yue Jia, Huiyan Zhou, Han Zhang, Lili Zhao

Journal: Chemical Engineering Journal

Year: 2025

📝Nonequilibrium Surface Oxygen Vacancy in MgTiO₃ Inducing Fast Optical Transformation Under Laser Irradiation

Authors: Yuang Chen, Yang Zou, Lili Zhao, Zijian Lei, Lixin Song

Journal: Ceramics International

Year: 2025

📝Preparation of Two–Dimensional Gradient Fillers Reinforced Polymer Nanocomposites for High–Performance Energy Storage of Dielectric Capacitors

Authors: Yan Wang, Wenhui Zhao, Lili Zhao, Dengwei Hu, Bin Cui

Journal: Journal of Energy Storage

Year: 2024

📝Ricci Curvature of Strongly Convex Kähler-Finsler Metrics

Authors: Bin Chen, Siwei Liu, Lili Zhao

Journal: Scientia Sinica Mathematica

Year: 2024

📝ZEROECG: Zero-Sensation ECG Monitoring by Exploring RFID MOSFET

Authors: Wenli Jiao, Ju Wang, Xinzhuo Gao, Dingyi Fang, Xiaojiang Chen

Publication Type: Conference Paper

Year: Not specified (presumed 2024 or 2025)

📝Improved Energy Storage Density of Sr₀.₇Bi₀.₂TiO₃-Based Relaxor Ferroelectric Ceramics via a Core-Shell-Structural Optimization Strategy

Authors: Ruicong Chen, Yan Wang, Wenhui Zhao, Lili Zhao, Bin Cui

Journal: Journal of Materials Science: Materials in Electronics

Year: 2024

Chamil Arkhasa Nikko Mazlan – Social Sciences – Best Researcher Award 

Published on by Global Physics Awards

Dr. Chamil Arkhasa Nikko Mazlan embarked on his academic path with a passion for music and education, completing a Bachelor’s Degree in Music (Performance) from the National Academy of Arts Culture and Heritage (ASWARA) between 2011 and 2014. His dedication to advancing music education led him to earn a Master’s Degree (2015–2016) and later a Doctor of Philosophy in Music Education (2019–2021), both from Universiti Pendidikan Sultan Idris (UPSI). These formative years laid the groundwork for a robust career centered on the fusion of music, pedagogy, and Social Sciences.

💼 Professional Endeavors

Dr. Chamil has carved out an impressive portfolio of professional accomplishments in academia, curriculum development, and international collaborations. He has served as a reviewer for multiple international journals, such as Musikolastika and Journal of ICT in Education, and has contributed to the formulation of national music curriculum frameworks for the Ministry of Education Malaysia. His role as a keynote speaker at high-profile conferences like ICOPE 2024 and Saraswati International Conference has further cemented his status as a thought leader in music education and Social Sciences. His appointments in various academic and curriculum committees reflect his influence across Malaysian educational policy and pedagogy.

🔬 Contributions and Research Focus

Dr. Chamil’s scholarly work and consultations are anchored in the interdisciplinary nexus of music education, digital innovation, and Social Sciences. His contributions include curriculum design for Malaysian Arts Schools, APEL-Q rubrics development, and interactive virtual reality-based music appreciation tools (Emarz). His research interests lie in merging technology with music pedagogy, promoting inclusive and innovative music education models through digital transformation in the arts. Through lectures, seminars, and committee work, he continues to bridge gaps between practice, theory, and policy.

🌍 Impact and Influence

Dr. Chamil’s impact resonates on both national and international stages. His leadership in shaping music education curricula has influenced generations of students and educators in Malaysia. As a member of strategic and ethics committees at UPSI, his guidance has helped ensure ethical, practical, and innovative approaches to education. His expertise in Social Sciences enables him to interpret educational trends through sociocultural lenses, thus crafting education policies that are inclusive, adaptive, and forward-thinking.

🏆Academic Cites

Dr. Chamil’s growing presence in scholarly circles is evidenced by his involvement in reputable journals and research platforms. His work on music education methodologies, digital learning tools, and Social Sciences-based music curriculum models has garnered attention from researchers across Southeast Asia and beyond. As both a cited author and academic reviewer, he contributes significantly to elevating scholarly standards and dissemination in his field.

🌟 Legacy and Future Contributions

Dr. Chamil Arkhasa Nikko Mazlan is poised to leave a lasting legacy as a pioneer in integrative music education rooted in Social Sciences and innovation. His future contributions are expected to continue reshaping how music is taught, assessed, and experienced in Malaysia and the wider region. With ongoing projects in curriculum development, international collaborations, and education technology, Dr. Chamil’s influence is bound to expand, making him a central figure in the evolution of music education.

📝Social Sciences

Throughout his career, Dr. Chamil has blended the principles of Social Sciences with artistic pedagogy, especially in curriculum innovation and educational research. His initiatives exemplify the integration of Social Sciences in analyzing and designing music learning systems. The future of music education, as envisioned by Dr. Chamil, places Social Sciences at its core—driving policy, pedagogy, and practice forward.

Notable Publication

🔍 Recent Research Highlights

📝Exploring the Integration of Bite-Sized Learning: A Scoping Review

  • Authors: CAN Mazlan et al.

  • Journal: Contemporary Educational Technology, Vol. 15(4), ep468

  • Year: 2023

  • Citations: 8

  • Focus: A comprehensive scoping review across disciplines, evaluating the implementation and effectiveness of microlearning (bite-sized learning) in education.

🎶 Music Education & Technology

📝E-learning Gamelan Ensemble Playing Techniques

  • Authors: CAN Mazlan, NAM Ramli, MH Abdullah, AI Uyub

  • Journal: Jurnal Seni Musik, Vol. 10(1), pp. 1–4

  • Year: 2021

  • Citations: 7

  • Focus: Digital instruction methods for traditional Gamelan music—highlighting cultural preservation through e-learning.

📝Utilizing Pragmatism in Jazz Guitar Reharmonization with Malay Asli Songs

  • Authors: CAN Mazlan, MH Abdullah

  • Journal: International Journal of Applied and Creative Arts (IJACA), Vol. 3(1), pp. 54–67

  • Year: 2020

  • Citations: 6

  • Focus: A pedagogical approach for learning jazz reharmonization using local Malay songs—integrating cultural music heritage with modern musical technique.

📝Perspective on Blended Learning for Instrumental Music

  • Authors: SF Arshad, MA Sulong, Z Hashim, CAN Mazlan

  • Journal: Journal of Positive School Psychology, Vol. 6(3), pp. 4936–4941

  • Year: 2022

  • Citations: 5

  • Focus: Evaluation of blended learning's effectiveness in teaching instrumental performance.

📝Design and Development of e-MARZ: VR for Music Education

  • Authors: AR Safian et al., incl. CAN Mazlan

  • Journal: Journal of Advanced Research in Applied Sciences and Engineering Technology

  • Year: 2024

  • Citations: 5

  • Focus: A practical, cost-effective VR solution for music education—bridging immersive tech with pedagogy.

🎼 Cultural and Musicological Contributions

📝Satu Tinjauan Muzikologi Lagu Melayu Asli

  • Authors: CAN Mazlan et al.

  • Journal: Jurai Sembah, Vol. 1(2), pp. 14–26

  • Year: 2020

  • Citations: 4

  • Focus: A musicological overview of traditional Malay Asli songs—analytical and preservation-driven.

📝Performing Arts in Cultural Tourism

  • Authors: CAN Mazlan et al.

  • Journal: International Journal of Religion, Vol. 5(10), pp. 1009–1018

  • Year: 2024

  • Citations: 3

  • Focus: How performing arts intersect with and enrich the cultural tourism landscape.

📝Guidebook on Jazz Guitar Harmony with Malay Asli Songs

  • Author: CAN Mazlan

  • Institution: Universiti Pendidikan Sultan Idris

  • Year: 2021

  • Citations: 3

  • Focus: Development and assessment of a teaching guide for jazz harmony using traditional Malay music as a framework.

Etido Inyang – Theoretical Physics – Excellence in Research 

Published on by Global Physics Awards

DR. ETIDO PATRICK INYANG began his scholarly journey with a strong foundational education in physics, graduating with a B.Sc. in Education Physics (Second Class Upper Division) from the University of Calabar in 2009. Demonstrating a continuous passion for scientific advancement, he pursued a Postgraduate Diploma in Physics (2014), an M.Sc. in Applied Nuclear Physics (2018), and earned a Ph.D. in Theoretical Nuclear Physics in 2021—all from the University of Calabar. His academic excellence was evident through consistently high GPAs and an unwavering commitment to the principles of Theoretical Physics.

💼 Professional Endeavors

In 2020, DR. INYANG joined the National Open University of Nigeria (NOUN) as a Lecturer II, quickly rising to Lecturer I by 2024. His responsibilities have included teaching core physics courses across various levels, such as Nuclear Physics, Mathematical Methods for Physics, and Elementary Particle Physics. Beyond teaching, he serves as the Examination Officer for the Department of Physics and a member of the Faculty of Science Ethics Committee, reflecting his leadership and dedication to academic integrity and student success. His consultancy work in radiation safety for Petrotech Oil Field Solutions highlights his applied expertise in Theoretical Physics and its practical applications.

🔬 Contributions and Research Focus

DR. INYANG’s research portfolio is richly diverse, yet deeply rooted in Theoretical Physics. His work focuses on quantum and mathematical physics, with key emphasis on Schrödinger equations, diatomic molecules, quantum information theory, atomic structure, and molecular processes in external fields. He has employed advanced mathematical techniques such as the Nikiforov-Uvarov Method, Extended NU Method, and Exact Quantization Rule to solve both relativistic and non-relativistic equations. Furthermore, his research in Applied Nuclear Physics explores the environmental distribution and effects of radioisotopes, while his work in Quantum Information Theory delves into entropy-based information analysis.

🌍 Impact and Influence

DR. INYANG is a leading voice in Nigerian and African physics research. With over 80 peer-reviewed publications, 65+ indexed in Scopus, and over 1,555 Google Scholar citations, he ranks among the top 500 researchers in Nigeria. His research has significantly influenced fields such as quantum thermodynamics, environmental radioactivity, and quantum computation, earning accolades such as the Best Researcher Award by Science Father and recognition as the fourth most-cited scholar at NOUN. His presence in local and international conferences continues to inspire fellow researchers and students alike.

🏆Academic Cites

With a consistently strong academic record and prolific publishing output, DR. INYANG’s works are widely referenced, contributing greatly to the scientific discourse in Theoretical Physics. His publications appear in prestigious journals, and he actively reviews for titles such as Molecular Physics, Physica Scripta, Indian Journal of Physics, and Nuclear Physics. As a Subject Editor for Communication in Physical Science, he ensures the dissemination of high-quality physics research.

🌟 Legacy and Future Contributions

DR. INYANG’s legacy lies in the fusion of rigorous theory with practical applications. His vision is to advance theoretical physics, quantum information, and environmental research through innovative methodologies, sustainability, and impactful technologies. Through TETFund and NOUN Senate research grants, he continues to pioneer projects on topics like radioactivity in agriculture, quantum heat engines, and Schrödinger solutions for molecular systems. As a 2023 Postdoctoral Fellow at Universiti Malaysia Perlis, he is poised to expand his global influence and further enrich Theoretical Physics research.

📝Theoretical Physics

Dr. Inyang’s expertise in Theoretical Physics allows him to tackle complex problems in quantum systems and nuclear modeling. His groundbreaking methods in Theoretical Physics have shaped emerging perspectives in both academia and industry. Through education, consultancy, and pioneering research, his dedication to Theoretical Physics continues to push the boundaries of modern science.

Notable Publication

📝Determination of Probability Density, Position and Momentum Uncertainties, and Information Theoretic Measures Using a Class of Inversely Quadratic Yukawa Potential

Authors: Etido P. Inyang, A. E. L. Aouami, Norshamsuri R. Ali, Norshah Rizal Ali, Syed Alwee Aljunid

Journal: Scientific Reports

Year: 2025

Citations: 0

📝Theoretical Models for the Thermodynamic Properties of Linear Triatomic Molecules

Authors: Edwin Samson Eyube, C. R. Makasson, Ekwevugbe Omugbe, A. M. Tahir, Clement Atachegbe Onate

Journal: Chemical Physics Letters

Year: 2025

Citations: 0

📝Vibrational Spectra for an Extended Cosine Hyperbolic Type Potential Model

Authors: Clement Atachegbe Onate, Ituen B. Okon, Edwin Samson Eyube, Abubakar D. Ahmed, Etido P. Inyang

Journal: Results in Chemistry

Year: 2025

Citations: 0

📝Analytical and Computational Study of Fisher and Shannon Information Entropies in One and Three-Dimensional Spaces for Exponential-Type Potential

Authors: Ituen B. Okon, Clement Atachegbe Onate, Eddy S. William, Abeer E. Aly, K. E. Essien

Journal: European Physical Journal Plus

Year: 2025

Citations: 0

📝Theoretical Computation of Eigenenergies, Expectation Values and Thermodynamic Functions of Shifted Deng-Fan-Hellmann Potential in External Fields

Authors: Eddy S. William, Samuel Okon Inyang, Ituen B. Okon, Clement Atachegbe Onate, Okpo O. Ekerenam

Journal: Computational and Theoretical Chemistry

Year: 2025

Citations: 1

Saleh Alamri – Thin Film – Best Researcher Award

Published on by Global Physics Awards

Prof. Saleh Alamri began his academic journey with a profound interest in physics and materials science. He pursued his Ph.D. at Durham University in England from 1995 to 1999, where his doctoral research focused on the "Preparation and Characterisation of Thin Film CdS/CdTe Solar Cells Produced by Close Space Sublimation." This pivotal academic phase marked the beginning of his long-standing dedication to thin film technology and solar energy applications. His early academic endeavors laid a robust foundation for his future contributions to Thin Film research and innovation.

💼 Professional Endeavors

Prof. Alamri has built a remarkable professional career, advancing through key academic and administrative roles at his institution. His progression includes serving as Assistant Professor (1999), Associate Professor (2007), and Full Professor (2011). In leadership, he has served as Head of the Physics Department (2006–2012), Vice-Dean of the Faculty of Science for Graduate Studies (2012), and Dean of Scientific Research (2012–2016). These roles demonstrate his commitment not only to education but also to fostering a research-driven academic environment. His work continues to revolve around the development and application of Thin Film materials in solar cells and smart devices.

🔬 Contributions and Research Focus

Prof. Alamri’s research centers on the preparation and characterization of thin films, solar cells, and smart window devices. He has conducted extensive experimental work using cutting-edge tools such as Scanning Electron Microscopes, X-Ray Diffractometers, Spectrophotometers, and Spectroscopic Ellipsometers. His expertise also includes constructing custom thermal and RF sputtering systems to develop novel materials. Notably, he holds two patents related to water production technologies utilizing cryogenic liquid gases and atmospheric humidity—an innovative extension of his research scope beyond Thin Film technologies into sustainable environmental solutions.

🌍 Impact and Influence

Prof. Saleh Alamri’s influence in the academic and scientific community is substantial. As Dean of Scientific Research, he led efforts to enhance research outputs and academic excellence across disciplines. His technical knowledge and hands-on experience with a wide range of high-precision equipment have made him a respected authority in Thin Film technologies and solar cell development. His interdisciplinary work—spanning energy, physics, and sustainability—has inspired collaborations and set new benchmarks in applied research.

🏆Academic Cites

Prof. Alamri’s scholarly work, especially in the field of Thin Film solar cells and materials science, has been cited in numerous academic journals and conference proceedings. His publications contribute significantly to the knowledge base in solar energy and nanomaterials, reflecting the value of his research to both academic and industrial sectors. His citations affirm his position as a thought leader in thin film physics and its applications.

🌟 Legacy and Future Contributions

With a career spanning more than two decades, Prof. Alamri’s legacy lies in his ability to merge academic rigor with real-world applications. His future contributions are poised to delve deeper into renewable energy, particularly advancing the performance and efficiency of Thin Film solar technologies. Through mentoring, patent innovation, and ongoing research, he is actively shaping the next generation of scientists and engineers while continuing to expand the frontiers of sustainable materials science.

📝Thin Film

Prof. Saleh Alamri’s contributions to Thin Film research have advanced solar cell technology and environmental innovation. His deep involvement in the preparation and characterization of Thin Film materials is central to his academic identity. The continued evolution of Thin Film devices under his guidance promises to make lasting impacts in energy and sustainability fields.

Notable Publication

📝Enhancement of Structural, Morphological, Thermal, Optical and Mechanical Characteristics of PVA/PEO Blends Based on Acetate Fillers and Infrared Laser Irradiation

Authors: Abdel-Kader, M.H.; Alharby, T.S.; Alamri, S.N.

Journal: Radiation Physics and Chemistry

Year: 2025

Citations: 1

📝Effect of Electron Beam Emission Current and Substrate Temperature on the Preparation of a CuSbS₂ Thin Film

Author: Alamri, S.N.

Journal: Physica B: Condensed Matter

Year: 2025

Citations: 0

📝Impact of Radiofrequency Sputtering Power on the Stoichiometry of a Cu₂ZnSnS₄ Layer Film Prepared from a Single Quaternary Target

Author: Alamri, S.N.

Journal: Journal of Taibah University for Science

Year: 2025

Citations: 0

📝Enhanced Electronic Structure, Phase, and Morphology of a CH₃NH₃PbI₃ Perovskite Solar Cell Using Vanadium Copper Sulfide (VCuS) Nanoparticle Treatment

Authors: Mkawi, E.M.; ALmehmadi, F.G.; Al-Hadeethi, Y.F.H.; Umar, A.S.; Bekyarova, E.B.

Journal: Journal of Inorganic and Organometallic Polymers and Materials

Year: 2024

Citations: 2

📝Insights into the Physical Characteristics of Spin Coating Films of Organometallic Materials Based on Phthalocyanine with Nickel, Copper, Manganese and Silicon

Authors: Jassas, R.S.; Timoumi, A.; Alamri, S.N.; Ma, N.; Ahmed, S.A.

Journal: Journal of Inorganic and Organometallic Polymers and Materials

Year: 2024

Citations: 1

📝Dual Thermal Evaporation and Characterisation of CuSbSe₂ Thin Films

Authors: Alyobi, M.M.M.; Alamri, S.N.

Journal: Indian Journal of Physics

Year: 2024

Citations: 2

📝Structural, Electronic and Optical Characteristics of TiO₂ and Cu-TiO₂ Thin Films Produced by Sol-Gel Spin Coating

Authors: Albaidani, K.; Timoumi, A.; Belhadj, W.; Alamri, S.N.; Ahmed, S.A.

Journal: Ceramics International

Year: 2023

Citations: 18

ShiHoon Choi – Crystallographic Texture – Outstanding Scientist Award 

Published on by Global Physics Awards

Prof. ShiHoon Choi began his academic journey in materials science with a B.S. degree in Metallurgical Engineering from Inha University in 1991. He further pursued his passion for the field by earning both his M.S. (1994) and Ph.D. (1998) degrees from the School of Materials Science and Engineering at Seoul National University. Under the mentorship of Prof. Kyu Hwan Oh, his doctoral thesis focused on the “Prediction of Deformation Texture during Plastic Deformation of Aluminum Alloy Sheet and Effect of Texture on Anisotropic Properties.” This foundational research laid the groundwork for his lifelong dedication to Crystallographic Texture.

💼 Professional Endeavors

Prof. Choi’s professional trajectory is marked by prestigious research roles and academic appointments both domestically and internationally. Following two postdoctoral stints—first at the Research Institute of Advanced Materials at Seoul National University and later at the Alcoa Technical Center in the USA—he worked as a Senior Researcher at POSCO Technical Research Laboratories from 2000 to 2005. In 2005, he joined Sunchon National University, Korea, where he has continued to serve as a professor. Between 2009 and 2011, he was a Visiting Professor at Carnegie Mellon University, working with Prof. Anthony Rollett’s group, further enriching his expertise in Crystallographic Texture.

🔬 Contributions and Research Focus

Prof. ShiHoon Choi’s primary research focus is on Crystallographic Texture, particularly in metallic materials and their deformation behavior. His work investigates the prediction and control of deformation textures in alloys and the resulting anisotropic mechanical properties. Through innovative experiments and theoretical modeling, he has significantly advanced the understanding of texture evolution in plastic deformation, especially in aluminum and ferrous metals. His contributions also span texture-related characterization techniques and their integration into manufacturing processes, making his research highly applicable in industrial contexts.

🌍 Impact and Influence

Prof. Choi is a globally respected expert in Crystallographic Texture, holding influential roles in scientific communities. He serves on the editorial boards of multiple esteemed journals such as the International Journal of Plasticity, Metals, and Korean Journal of Metals and Materials. Additionally, he is a scientific committee member for global conferences like ICOTOM and THERMEC. His leadership extends into executive board positions at the Korean Institute of Metals and Materials and the Korean Society for Technology of Plasticity. His expertise has also been recognized through advisory roles for government committees in Jeollanam-do, Korea.

🏆Academic Cites

Prof. Choi’s scholarly output has been widely cited, underscoring his authority in materials science and Crystallographic Texture. His research is frequently referenced in top-tier journals such as Acta Materialia, Scripta Materialia, and Materials Science and Engineering A. These citations validate the theoretical and practical relevance of his work and its influence on ongoing studies and applications in the field.

🌟 Legacy and Future Contributions

Prof. ShiHoon Choi's legacy is one of scientific excellence and commitment to education and innovation. His numerous accolades—including the LS Academic Award (2024), Yo Seok Award (2021), and Young Scientists Award (2013)—highlight his continued relevance and recognition. He has consistently been honored for his research output at both national and institutional levels. As he continues to lead advanced studies in Crystallographic Texture, Prof. Choi is poised to shape future directions in materials science, inspiring the next generation of researchers and strengthening industrial practices through fundamental science.

📝Crystallographic Texture

Prof. ShiHoon Choi’s pioneering research in Crystallographic Texture has significantly impacted the understanding of deformation mechanisms in metals. His studies on texture evolution and anisotropy in aluminum alloys represent landmark contributions in Crystallographic Texture research. Through continued innovation and collaboration, Prof. Choi is advancing the field of Crystallographic Texture with global relevance and practical utility.

Notable Publication

📝Exploring Microstructure and Texture Evolution in AZX311 Mg Alloy under Cyclic Shear Deformation

Authors: Mahesh M. Panchal, Lalit L. Kaushik, Ravi Kottan Renganayagalu, Shihoon S. Choi, Jaiveer J. Singh

Journal: Journal of Magnesium and Alloys

Year: 2025

Citations: 0

📝Unveiling the Effect of Cementite Distribution on the Deformation Behavior of Pearlitic Steel Wires Under Micropillar Compression: A Strain-Gradient Crystal Plasticity Approach

Authors: Abhishek Kumar A.K. Singh, Ki-seong K. Park, Saurabh S. Pawar, Dongchan D. Jang, Shihoon S. Choi

Journal: International Journal of Plasticity

Year: 2025

Citations: 0

📝Investigating the Influence of Microstructure and Tool Rotation Speed on the Mechanical Properties of Friction Stir Processed AA5083 Sheets

Authors: Preetham P. Alluri, Khushahal Sunil K.S. Thool, Aman A. Gupta, Tae-hyeon T. Yoo, Shihoon S. Choi

Journal: Materials Science and Engineering: A

Year: 2025

Citations: 0

📝Deformation Mechanisms in Pure Mg Single Crystal Under Erichsen Test: Experimental Observations and Crystal Plasticity Predictions

Authors: Cheolseung C. Hyun, Jaiveer J. Singh, Mahesh M. Panchal, Kwang Seon K.S. Shin, Shihoon S. Choi

Journal: International Journal of Plasticity

Year: 2025

Citations: 0

📝Uncovering the Microstructural and Precipitate Evolution in the Cryogenic Temperature - Friction Stir Processed AA6xxx Sheets

Authors: Aman A. Gupta, Preetham P. Alluri, Khushahal Sunil K.S. Thool, Shihoon S. Choi

Journal: Materials Characterization

Year: 2025

Citations: 0

📝A Study on the Effect of Bulk Porosity and Surface Roughness on the Biocompatibility of TPMS Gyroid Structures Fabricated via the SLM Process

Authors: Ki-seong K. Park, Holim H. Jin, Yoon A. Y.A. Shin, Young-jin Y. Son, Shihoon S. Choi

Journal: Metals and Materials International

Year: 2025

Citations: 0

📝Investigation of Tensile Twinning on Texture and Microstructure Evolution of Mg-3Al-1Zn-1Ca Alloy Under In-plane Shear Deformation

Authors: Mahesh M. Panchal, Appala Naidu A.N. Gandi, Shihoon S. Choi, Jaiveer J. Singh

Journal: Journal of Magnesium and Alloys

Year: 2025

Citations: 0

Seok-Kyoon Kim – Power Electronics – Outstanding Scientist Award 

Published on by Global Physics Awards

Prof. Seok-Kyoon Kim began his academic journey with a strong foundation in electronics and media technology, earning a B.S. from Seoul National University of Technology in 2004. Driven by a passion for advanced engineering systems, he pursued a unified Master’s and Ph.D. program in Electrical Engineering at Korea University, completing his doctorate in 2014. His early academic work laid a rigorous foundation in Power Electronics, signal processing, and control systems, equipping him with the expertise to tackle complex engineering challenges.

💼 Professional Endeavors

Prof. Kim’s professional trajectory reflects a blend of academic excellence and industry innovation. From 2015 to 2017, he served as a Senior Researcher at LG Electronics in South Korea, where he contributed to practical advancements in electronic systems. His academic career flourished as an Associate Professor at Hanbat National University (2017–2025), followed by a Research Professor role at KAIST from 2018 to 2022. In April 2025, he was appointed Distinguished Professor at the Huzhou Institute of Zhejiang University, China, where he leads major initiatives at the Zhejiang Provincial Engineering Research Center for Intelligent Mobile Unmanned Systems Technology. His work is grounded in applied engineering, especially in Power Electronics for robotics, motor drives, and energy systems.

🔬 Contributions and Research Focus

Prof. Kim’s research is centered on feedback system design and signal processing using adaptive, robust, optimal, and nonlinear system theories. He focuses on applying these techniques to industrial applications, particularly in Power Electronics devices such as motor drives and converters, as well as robotics like quadcopters, balancing robots, and autonomous rover vehicles. Noteworthy projects include the development of a learning-based motor drive system for drones (2021–2024), hybrid electric vehicle conversion kits (2017–2020), and 3D printed active electronics (2018–2027). His contributions bridge theoretical systems control and real-world applications, with a strong emphasis on energy efficiency and reliability.

🌍 Impact and Influence

Prof. Seok-Kyoon Kim has significantly influenced the fields of electrical engineering and Power Electronics. His interdisciplinary approach connects academia and industry, fostering innovation in drone technology, hybrid vehicle systems, and smart electronics. His roles as Principal Investigator (PI) and Co-PI in several high-impact research projects funded by the National Research Foundation of Korea and the Korea Agency for Infrastructure Technology Advancement underscore his leadership and vision in next-generation power systems.

🏆Academic Cites

Prof. Kim’s work has been widely cited across journals and conferences in the domains of electrical engineering, robotics, and Power Electronics. His contributions to system modeling, motor control, and electronic hardware design have become essential references for researchers in the field. The academic community continues to build upon his research, validating its foundational importance and technical rigor.

🌟 Legacy and Future Contributions

Prof. Kim is shaping the future of intelligent autonomous systems through his expertise in feedback control and electronic systems. His legacy lies in transforming complex theories into practical solutions for industrial robotics, drone systems, and hybrid electric vehicles. At Zhejiang University, he continues to inspire innovation and mentorship. Future contributions are expected to further redefine efficiency and intelligence in mobile unmanned systems, with Power Electronics remaining at the heart of his transformative work.

📝Power Electronics

Prof. Kim’s expertise in Power Electronics is a cornerstone of his academic and industrial innovations. His advanced control strategies and hardware systems significantly enhance energy efficiency, precision, and reliability. Across drones, hybrid vehicles, and robotics, his vision for Power Electronics continues to drive meaningful technological progress.

Notable Publication

📝Intelligent Output-Feedback Speed Tracking System for Servo Drives via Adaptive Error Stabilization and Order Reduction Approaches

Authors: Seok-kyoon Kim, Sun Lim, Peng Shi, Choon Ki Ahn

Journal: IEEE/ASME Transactions on Mechatronics

Year: 2025

Citations: 0

📝Critical Damping Double Integral Control for PMSM Speed Control Applications via Order Reduction Technique

Authors: Sang-hyuk Lee, Seok-kyoon Kim, Kyobeum Lee

Journal: International Journal of Control, Automation and Systems

Year: 2025

Citations: 0

📝Disturbance Observer-Based Model-Independent Filtering Technique for Speed Servo Applications via Pole-Zero Cancellation Approach

Authors: Seok-kyoon Kim, Sun Lim, Kyobeum Lee

Journal: IEEE Transactions on Industrial Electronics

Year: 2025

Citations: 0

📝Decentralized Critical Damping Position Synchronizer for Multiservo Drives via Feedback-Loop Intelligentization Approach

Authors: Seok-kyoon Kim, Sun Lim, Choon Ki Ahn

Journal: IEEE Transactions on Industrial Electronics

Year: 2025

Citations: 0

📝Performance Recovery High-Order Pole-Zero Cancellation Control for Command-Following Rover Vehicle Applications via Active Damping Injection Techniques

Authors: Seok-kyoon Kim, Peng Shi, Choon Ki Ahn

Journal: IEEE Transactions on Intelligent Transportation Systems

Year: 2025

Citations: 0

📝Error Dynamics Diagonalization Technique-Based Model-Free Filter Embedding LPF for Servo Drive Applications

Authors: Seok-kyoon Kim, Sun Lim, Kyobeum Lee

Journal: IEEE Transactions on Power Electronics

Year: 2025

Citations: 0

📝Model-Free Filter-Based Trajectory Tracking Controller for Two-Wheeled Vehicles Through Pole-Zero Cancellation Technique

Authors: Hosik Lee, Sangyoon Oh, Kyungsoo Kim, Younghun Kim, Seok-kyoon Kim

Journal: Vehicles

Year: 2024

Citations: 0

Edwige Vannier – Machine Learning – Best Researcher Award 

Published on by Global Physics Awards

Dr. Edwige Vannier began her academic journey in France, where she demonstrated a strong interest in the intersection of technology and biomedical sciences. She earned her engineering degree from ENSEA (École Nationale Supérieure de l'Électronique et de ses Applications), Cergy-Pontoise, in 1997. Continuing her academic trajectory, she obtained a Ph.D. in Biomedical Engineering from Paris 12 University (Paris-Est Créteil) in 2001. Her early academic pursuits laid a multidisciplinary foundation, bridging biomedical engineering with applied sciences and data analysis—skills that would become central to her later work in Machine Learning and remote sensing.

💼 Professional Endeavors

In 2003, Dr. Vannier joined the University Institute of Technology of Vélizy, affiliated with the University of Versailles-Saint-Quentin-en-Yvelines. As a dedicated educator, she has contributed significantly to the Network and Telecom Department, where she trains students in the principles of data transmission, networks, and computational models. Alongside her teaching, she conducts research at the “Laboratoire Atmosphères, Observations Spatiales,” a center focused on environmental data and spatial observations. Her professional endeavors uniquely combine education, environmental science, and advanced analytics, especially in the area of Machine Learning applications for geoscientific data.

🔬 Contributions and Research Focus

Dr. Edwige Vannier’s research focus lies in the analysis and modelling of rough surfaces, particularly soil surfaces, using Machine Learning, remote sensing, and spatial observation tools. One of her notable contributions is the recent paper titled “Machine learning of clod evolution under rain for numerical simulation of microtopographic variations by clod layout.” This study offers a robust method for generating and simulating the evolution of soil roughness under rainfall—a process crucial for understanding geomorphologic changes and soil fertility. By using digital elevation models (DEMs) recorded via laser scanning, she was able to construct a clod database and apply Machine Learning techniques to model the changes in clod distribution and surface roughness. This research stands out for its methodological innovation and practical applications in environmental modeling, agricultural science, and hydrology.

🌍 Impact and Influence

Dr. Vannier’s work has had a significant impact on the field of environmental remote sensing and geospatial surface modeling. Her integration of Machine Learning into surface analysis has offered new pathways for simulating and predicting microtopographic variations. Through her interdisciplinary research, she contributes to fields ranging from geomorphology to soil science, bringing computational precision to complex environmental phenomena. Her teaching and mentorship also continue to influence the next generation of engineers and scientists, amplifying her academic and scientific legacy.

🏆Academic Cites

Dr. Vannier's research contributions have been recognized and cited in peer-reviewed academic journals. Her recent work has drawn attention for its novel integration of Machine Learning with digital terrain analysis, and has served as a foundation for subsequent studies in soil modelling, environmental forecasting, and remote sensing technologies. As her methodologies gain traction, the academic community continues to reference her innovative approach to modelling clod evolution and rough surface simulation.

🌟 Legacy and Future Contributions

Looking ahead, Dr. Edwige Vannier is poised to make further strides in environmental modeling and data-driven surface analysis. Her legacy will be defined by her pioneering role in applying computational techniques like Machine Learning to practical environmental challenges. With the increasing demand for accurate, scalable models of natural systems, her work will continue to provide critical tools for scientific understanding and policy development. She is expected to expand her research into more diverse applications of terrain analysis, enhancing the precision of predictive environmental models.

📝Machine Learning

Dr. Edwige Vannier’s innovative use of Machine Learning in soil surface simulation represents a significant contribution to environmental modeling. Her work bridges the gap between physical observations and digital simulation, demonstrating how Machine Learning can be applied to clod evolution and surface roughness analysis. As the need for accurate environmental forecasting grows, her integration of Machine Learning into remote sensing and rough surface analysis positions her at the forefront of interdisciplinary scientific innovation.

Notable Publication

📝Machine Learning of Clod Evolution Under Rain for Numerical Simulation of Microtopographic Variations by Clod Layout

Authors: Edwige Vannier, Richard Dusséaux

Journal: Biosystems Engineering

Year: 2025

Citations: 0

📝Soil Surface Roughness Modelling with the Bidirectional Autocorrelation Function (Open Access)

Authors: Richard Dusséaux, Edwige Vannier

Journal: Biosystems Engineering

Year: 2022

Citations: 9

Yangshanshan Liu – Celestial mechanics – Best Researcher Award 

Published on by Global Physics Awards

Dr. Yangshanshan Liu began her academic journey with a Bachelor of Science in Mathematics from Liaoning University in 2010, where she completed a thesis on financial modeling using the ARCH model. Demonstrating early academic excellence, she received scholarships throughout her undergraduate studies. Her passion for theoretical mathematics led her to pursue a Master's degree at Sichuan University, where she worked under the guidance of Professor Shiqing Zhang. Her master's thesis explored symmetric central configurations in the planar concave five-body problem with the Newtonian potential—marking her first major step into Celestial mechanics. Her academic path culminated in a Ph.D. in Mathematics at the same institution, further deepening her expertise in Celestial mechanics and n-body problems.

💼 Professional Endeavors

Throughout her postgraduate years, Dr. Liu dedicated herself to deep theoretical inquiry and mathematical modeling of gravitational systems. Her doctoral thesis, titled Central Configurations of the Newtonian n-Body Problems with Homogeneous Potentials, addressed complex phenomena within Celestial mechanics. Dr. Liu’s academic career is distinguished by her continuous involvement in research, combining classical mechanics with modern mathematical frameworks such as Hamiltonian systems and computational algebraic geometry. Her educational journey was supported by prestigious awards, including annual Ph.D. and Master's scholarships, and the Liu Yingming Scholarship.

🔬 Contributions and Research Focus

Dr. Yangshanshan Liu's primary research contributions lie in Celestial mechanics, with a strong focus on central configurations, Hamiltonian dynamics, and the mathematical structure of n-body problems. Her work blends rigorous mathematical theory with computational techniques to explore the fundamental nature of gravitational systems. She has contributed original findings on the role of symmetry and stability in central configurations and has applied tools from index theory and computational algebraic geometry to classify and analyze these complex systems. Her interdisciplinary skill set also includes programming, enhancing her computational modeling and simulation capabilities.

🌍 Impact and Influence

Dr. Liu has established herself as a promising scholar in Celestial mechanics. Her research has not only deepened the understanding of gravitational configurations but also set a strong example of how classical mathematics can be revitalized with modern computational tools. As a recipient of multiple scholarships and honors throughout her academic career, she is recognized as a leading young mathematician. Her mentorship under renowned professor Shiqing Zhang and her rigorous training at Sichuan University have further strengthened her influence in academic circles.

🏆Academic Cites

Though at an early stage in her academic career, Dr. Liu has already made contributions to mathematical literature in Celestial mechanics. Her research on n-body problems and central configurations is expected to draw increasing citations as she continues publishing in high-impact journals. Her methodological innovations and insightful analyses position her to become a frequently cited scholar in the field, particularly among researchers focused on celestial dynamics, Hamiltonian systems, and mathematical physics.

🌟 Legacy and Future Contributions

Dr. Yangshanshan Liu’s legacy is just beginning to unfold. With her robust mathematical background, proven research capabilities, and a clear focus on the deep challenges within Celestial mechanics, she is poised to make lasting contributions to the field. Her future work promises to expand the mathematical frameworks surrounding gravitational systems and to inspire new generations of researchers in mathematical physics and computational dynamics. As she continues to grow in her academic career, her impact is expected to resonate across theoretical and applied mathematics.

📝Celestial mechanics

Dr. Yangshanshan Liu's research in Celestial mechanics is at the forefront of n-body problem theory and Hamiltonian systems. Her studies on central configurations and index theory provide a rich mathematical lens to understand the complexities of Celestial mechanics. With a focus on innovation, her ongoing work is expected to shape the future of Celestial mechanics for years to come.

Notable Publication

📝A Characterization of a Special Planar 5-Body Central Configuration with a Trapezoidal Convex Hull

Authors: Yangshanshan Liu (Y. Liu), Shiqing Zhang (S. Zhang)

Journal: Journal of Geometry and Physics

Year: 2025

Citations: 0

Bibekananda Nayak – Black Hole Physics – Best Researcher Award 

Published on by Global Physics Awards

Dr. Bibekananda Nayak laid the foundation of his academic excellence in Odisha, India, with a consistent record of distinction throughout his education. From securing First Division in high school and higher secondary to achieving First Class with Distinction in B.Sc. (Honours in Physics) from Utkal University, his academic journey has been marked by dedication and brilliance. He completed his Master of Science in Physics in 2006, specializing in Particle Physics, followed by a PhD in Physics in 2013 from Utkal University, where his doctoral thesis focused on Cosmological Aspects of Brans-Dicke Theory—a significant contribution to theoretical cosmology. His academic pursuits were further strengthened by qualifying for prestigious national-level exams like UGC-CSIR NET (twice) and GATE, laying the groundwork for a promising research and teaching career.

💼 Professional Endeavors

Dr. Nayak’s professional career reflects a steady rise through the academic ranks, beginning as an Assistant Professor at Mahaveer Institute of Engineering & Technology and later serving at Bhadrak Autonomous College. His long-standing commitment to Fakir Mohan University since 2015 has seen him progress from Stage I to Assistant Professor (Stage III). His teaching portfolio is diverse, encompassing Classical Mechanics, Statistical Mechanics, Advanced Quantum Mechanics, Particle Physics, Atomic and Molecular Physics, and Computational Physics. He has also demonstrated leadership through roles such as Coordinator of multiple departments, including Atmospheric Science and Education, and administrative posts like Deputy Director of DDCE and I/C of the University Guest House.

🔬 Contributions and Research Focus

Dr. Bibekananda Nayak’s research is anchored in theoretical physics with a specialized focus on BLACK HOLE PHYSICS, cosmology, and Brans-Dicke theory. His interest in understanding the gravitational dynamics and spacetime structure near singularities is reflected in his PhD work. He continues to lead research as the Principal Investigator of a UGC Start-Up Grant Project, receiving funding of ₹10,00,000. His studies intersect general relativity and quantum field theory, further enriching the domain of BLACK HOLE PHYSICS, where his analytical methods explore gravitational collapse, black hole thermodynamics, and cosmic evolution models.

🌍 Impact and Influence

Dr. Nayak’s contributions have been recognized at both state and national levels. He received the Odisha Young Scientist Award (2015) and the Young Scientist Award in Theoretical Physics (2016). As a Junior and Senior Research Fellow under CSIR, his academic output has contributed to elevating the theoretical landscape of physics in India. Through numerous professional development programs, refresher courses, and workshops, including those organized by UGC-HRDC, IUCAA, and NIT Patna, he has actively engaged in upskilling, while mentoring future physicists and promoting educational innovation in line with the National Education Policy. His scholarly dedication has had a ripple effect on colleagues, students, and researchers focused on BLACK HOLE PHYSICS.

🏆Academic Cites

Although detailed citation metrics are not provided here, Dr. Nayak’s academic presence in theoretical physics, especially in the area of BLACK HOLE PHYSICS, is established through his research publications, teaching excellence, and participation in prestigious training programs and schools, including the AKR School on General Relativity at Saha Institute of Nuclear Physics. His work continues to be a touchstone for peers and aspiring researchers in high-energy physics and cosmology.

🌟 Legacy and Future Contributions

Dr. Bibekananda Nayak is poised to leave a lasting legacy through his combined efforts in teaching, administration, and research. As he moves forward into the next stage of his academic career, he is expected to deepen his research in BLACK HOLE PHYSICS, contributing to the global understanding of black hole singularities, quantum gravity effects, and alternative gravitational theories. His legacy will also include his significant role in shaping the academic structure of Fakir Mohan University through mentorship, leadership, and scholarly excellence.

📝Black Hole Physics

Dr. Bibekananda Nayak’s work has advanced the theoretical foundations of BLACK HOLE PHYSICS, particularly in the context of Brans-Dicke theory and general relativity. His academic journey reflects a deep engagement with the core principles and challenges of BLACK HOLE PHYSICS, influencing curriculum, research direction, and scientific thought in India. Through continuous exploration and teaching, Dr. Nayak contributes to the evolving frontier of BLACK HOLE PHYSICS, making him a valuable asset to the field.

Notable Publication

📝Exact Analytical Investigation of During Oscillator Vibration Spectra Under Time-Periodic Oscillatory External Force

Authors: M. Aktas, B. Nayak, B. Rath

Journal: International Journal of Modern Physics C

Year: 2025

Citations: 0

📝Unveiling the Evolution of Rotating Black Holes in Loop Quantum Cosmology

Authors: S. Swain, G. Sahoo, B. Nayak

Journal: Scientific Reports

Year: 2024

Citations: 0