Arun Kumar | Physics | Editorial Board Member

Dr. Arun Kumar | Physics | Editorial Board Member

Research Associate | Indian Institute of Technology (BHU) | India

Dr. Arun Kumar is a Post-Doctoral Fellow at the Indian Institute of Science Education and Research (IISER), Pune, specializing in multiferroics, strongly correlated systems, spin glasses, and magnetoelectric coupling. His research employs advanced experimental techniques such as X-ray and neutron scattering to investigate structural phase transitions, magnetic ground states, and spin-glass behavior in complex oxide materials, providing critical insights into the interplay between magnetoelastic, magnetoelectric, and dielectric phenomena for the development of next-generation multifunctional materials. Dr. Kumar’s key contributions include elucidating multiple spin-glass transitions, cluster glass phases, and low-temperature magnetic relaxation in disordered perovskites and hexagonal multiferroics, published in high-impact journals such as Physical Review B, Journal of Magnetism and Magnetic Materials, and Journal of Alloys and Compounds. He has also studied the effects of chemical doping, synthesis methods, and structural modifications on the dielectric and magnetic properties of functional materials, significantly advancing understanding of magnetoelectric coupling and energy storage potential. Through active collaboration with multidisciplinary research groups, Dr. Kumar fosters innovation across condensed matter physics, materials science, and applied engineering, with his work contributing to the design of energy-efficient, high-performance dielectric, multiferroic, and magnetoelectric devices and bridging fundamental science with practical technological applications.

Profiles: Google Scholar | ORCID

Featured Publications

Kumar, A., Kaushik, S. D., Siruguri, V., & Pandey, D. (2018). Evidence for two spin-glass transitions with magnetoelastic and magnetoelectric couplings in the multiferroic system. Physical Review B, 97(10), 104402. Citations: 65

Kumar, A., Senyshyn, A., & Pandey, D. (2019). Evidence for cluster spin glass phase with precursor short-range antiferromagnetic correlations in the B-site disordered perovskite. Physical Review B, 99(21), 214425. Citations: 56

Kumar, A., & Pandey, D. (2020). Study of magnetic relaxation, memory and rejuvenation effects in the cluster spin-glass phase of B-site disordered Ca(Fe1/2Nb1/2)O3 perovskite: Experimental evidence. Journal of Magnetism and Magnetic Materials, 511, 166964. Citations: 27

Kumar, P. A., Kumar, A., Kumar, K., Babu, G. A., Vijayakumar, P., et al. (2019). Evidence for Spin Glass Transition in Hexagonal DyMnO3 without Substitutional Disorder. The Journal of Physical Chemistry C, 123(50), 30499–30508. Citations: 21

Khorwal, A. K., Dash, S., Kumar, A., Lukoyanov, A. V., Shreder, E. I., Bitla, Y., et al. (2022). Evidence for canonical spin glass behaviour in polycrystalline Mn1.5Fe1.5Al Heusler alloy. Journal of Magnetism and Magnetic Materials, 546, 168752. Citations: 20

Clement Onate | Mathematical Physics | Best Researcher Award

Assoc. Prof. Dr. Clement Onate | Mathematical Physics | Best Researcher Award

Associate Professor | Bowen University Iwo | Nigeria

Dr. Onate Clement Atachegbe, is a distinguished Nigerian theoretical and mathematical physicist and an Associate Professor at Bowen University, Iwo, Osun State. He obtained his Ph.D. in Theoretical/Mathematical Physics from the University of Benin in 2018, M.Sc. in Physics (Theoretical) and B.Sc. (Hons) in Physics from the University of Ilorin in 2014 and 2010 respectively, and an N.C.E. in Mathematics/Physics from the Federal College of Education, Okene in 2005. His academic career began as a physics educator under the Kogi State Teaching Service Commission before joining Landmark University, where he rose through the ranks from Lecturer II to Senior Lecturer, later serving at Prince Abubakar Audu University, and currently as Associate Professor at Bowen University. Dr. Onate has held several academic leadership roles, including Section Editor-in-Chief for Physics and Astronomy at the Journal of the Nigerian Society of Physical Sciences, Examination Officer, SIWES Coordinator, and Committee Chair across multiple universities. His research focuses on quantum information theory, theoretical and computational physics, and quantum statistical mechanics, particularly exploring how information-theoretic measures—such as Shannon entropy, Fisher information, and statistical complexity—elucidate the behavior of low-dimensional quantum systems. He also investigates thermodynamic properties, including partition functions, Gibbs free energy, enthalpy, and heat capacities, linking theoretical models to experimental results in quantum coherence, entanglement, and thermodynamics. Dr. Onate possesses advanced research skills in analytical and computational modeling of quantum systems, employing methods such as supersymmetric approaches and asymptotic iteration techniques. His numerous awards and honors include multiple Certificates of Excellence from Landmark University, recognition among the top 500 researchers in Nigeria (2015–2025), and listings in the world’s top 2% scientists (2021–2023). In conclusion, Dr. Onate’s academic excellence, leadership, and impactful research significantly advance the understanding of quantum systems and theoretical physics, making him a leading figure in Nigeria’s scientific community.

Profiles: Google Scholar | Scopus | ORCID | LinkedIn 

Featured Publications

  1. Lukman, A. F., Ayinde, K., Binuomote, S., & Clement, O. A. (2019). Modified ridge‐type estimator to combat multicollinearity: Application to chemical data. Journal of Chemometrics, 33(5), e3125. Cited by 182

  2. Oyewumi, K. J., Falaye, B. J., Onate, C. A., Oluwadare, O. J., & Yahya, W. A. (2014). Thermodynamic properties and the approximate solutions of the Schrödinger equation with the shifted Deng–Fan potential model. Molecular Physics, 112(1), 127–141. Cited by 174

  3. Ikot, A. N., Chukwuocha, E. O., Onyeaju, M. C., Onate, C. A., Ita, B. I., & Udoh, M. E. (2018). Thermodynamics properties of diatomic molecules with general molecular potential. Pramana, 90(2), 22. Cited by 114

  4. Falaye, B. J., Oyewumi, K. J., Ibrahim, T. T., Punyasena, M. A., & Onate, C. A. (2013). Bound state solutions of the Manning–Rosen potential. Canadian Journal of Physics, 91(1), 98–104. Cited by 108

  5. Onate, C. A., & Ojonubah, J. O. (2016). Eigensolutions of the Schrödinger equation with a class of Yukawa potentials via supersymmetric approach. Journal of Theoretical and Applied Physics, 10(1), 21–26. Cited by 78

Nour Abdulameer | High Energy Physics | Best Researcher Award

Dr. Nour Abdulameer | High Energy Physics | Best Researcher Award

Student  at Debrecen university, Hungary

Dr. Nour Jalal Abdulameer is a dedicated and emerging researcher in high-energy physics with a strong academic foundation, including a Ph.D. from the University of Debrecen. Her research contributions span nuclear and particle physics, with active involvement in major international collaborations such as the PHENIX Experiment. She has co-authored several technical notes and analysis reports related to particle collisions and solar events, showcasing her skills in data analysis, detector calibration, and simulation. Dr. Abdulameer has also presented at numerous global conferences and participated in advanced workshops, reflecting her active engagement in the scientific community. In addition to research, she has contributed significantly to teaching physics and medical physics across universities in Iraq and Hungary. Proficient in programming and multilingual, she is well-positioned for international collaboration. With further focus on peer-reviewed publications and leading independent research projects, she holds strong potential as a candidate for the Best Researcher Award.

Professional Profile 

Education🎓

Dr. Nour Jalal Abdulameer has pursued a progressive academic path in the field of physics, beginning with a Bachelor’s degree in Physics Science from Thi-Qar University, Iraq (2011–2015). She advanced her specialization by earning a Master’s degree in Nuclear and Plasma Physics from the same institution (2016–2018), where she developed a strong foundation in theoretical and applied physics. Her academic journey reached its pinnacle with her ongoing Ph.D. studies in High Energy Physics at the University of Debrecen, Hungary (2020–present). Throughout her doctoral program, she has engaged in advanced coursework and hands-on research in experimental particle physics, data acquisition, astrophysics, and detector technology. Her participation in specialized schools such as the CERN School in Korea and the Asia-Europe-Pacific School of High-Energy Physics further enriched her technical knowledge. This strong and diverse educational background has equipped her with the expertise and practical skills essential for cutting-edge research in modern physics.

Professional Experience📝

Dr. Nour Jalal Abdulameer has accumulated diverse professional experience across academia, research, and technical roles. She began her academic career as an Assistant Lecturer in Medical Physics at Al-Ayen University, Iraq (2018–2020), where she taught undergraduate laboratory courses. She later served at Thi-Qar University, instructing seminars in Quantum Mechanics, Electricity, and Nuclear Physics. Since 2020, she has been an Assistant Lecturer at the University of Debrecen, Hungary, contributing to physics education while actively engaging in research. Dr. Abdulameer has been a researcher in the PHENIX Experiment and has worked part-time at the Wigner Research Centre for Physics in Budapest since 2023. Her industry-related experience includes a technical role as a Medical Assistant handling dental X-rays and a Sales Engineer position focusing on technical solutions and customer support. These roles demonstrate her versatility in blending research, teaching, and practical applications of physics, underscoring her capability as a well-rounded physics professional.

Research Interest🔎

Dr. Nour Jalal Abdulameer’s research interests lie primarily in the field of high-energy and nuclear physics, with a strong focus on experimental particle physics. Her work involves analyzing heavy-ion collisions to study fundamental particles and their interactions under extreme conditions, as part of the PHENIX Experiment collaboration. She is particularly interested in topics such as Quantum Chromodynamics (QCD), the Standard Model, direct photon and pion production, and the behavior of matter at high temperatures and densities. Her involvement in detector calibration, data acquisition, and online monitoring reflects a technical proficiency in handling complex experimental setups. Additionally, Dr. Abdulameer has explored solar particle events and their relationship with cosmic phenomena, indicating her multidisciplinary approach to research. Her experience with advanced programming tools like ROOT CERN and her participation in international workshops and scientific schools further support her commitment to advancing knowledge in particle physics through both theoretical insight and experimental precision.

Award and Honor🏆

Dr. Nour Jalal Abdulameer has been recognized for her academic and research excellence through several prestigious awards and honors. She was selected to participate in the highly competitive Asia-Europe-Pacific School of High-Energy Physics (AEPSHEP2022) in South Korea, reflecting her standing in the global physics community. Additionally, she has been invited to present her work at esteemed international conferences and workshops, including the Zimányi Winter School (2022 and 2023) in Hungary, the PHENIX training at Stony Brook University and Brookhaven National Laboratory in the USA, and the Initial Stages 2023 Conference in Copenhagen. These opportunities highlight her active involvement and contributions to the field of high-energy physics. Her continued participation in workshops on scientific programming, detector technologies, and particle physics reflects both her academic recognition and commitment to professional development. These accolades underscore her promise and potential as a leading young researcher in experimental physics and related interdisciplinary domains.

Research Skill🔬

Dr. Nour Jalal Abdulameer possesses a comprehensive set of research skills that make her a proficient and impactful scientist in the field of high-energy physics. She is highly skilled in data analysis, simulation, and detector calibration, with hands-on experience in working with particle detectors and large-scale experimental datasets from heavy-ion collisions. Her technical proficiency includes expertise in programming with C++ and using ROOT CERN for data visualization and statistical analysis, as well as LaTeX for scientific documentation. Dr. Abdulameer is adept at applying general research methodologies, modeling, and simulation techniques in experimental particle physics. Her work on the calibration of EMCal ToF and analysis of π0 and direct photon production demonstrates her deep understanding of experimental procedures and attention to precision. Additionally, her collaborative work with international teams, including contributions to technical and analysis notes, illustrates her ability to work effectively in multidisciplinary environments, managing complex research tasks with clarity and rigor.

Conclusion💡

Dr. Nour Jalal Abdulameer is a highly qualified and promising candidate for the Best Researcher Award, especially considering her strong academic progression, active involvement in global high-energy physics experiments, and interdisciplinary engagement. Her background reflects consistent growth, international collaboration, and technical competence, which aligns with the qualities expected from a top researcher.

Publications Top Noted✍️

“Disentangling Centrality Bias and Final-State Effects in the Production of High-pT Neutral Pions Using Direct Photon in d+Au Collisions at √sNN = 200 GeV”

This publication presents a simultaneous measurement of direct photon and neutral pion production in d+Au collisions at √sNN = 200 GeV, analyzing the effects of centrality bias and final-state interactions. The study finds that for minimum-bias collisions, the nuclear modification factor is consistent with unity, while a suppression is observed in the top 5% of events with the highest activity, suggesting possible final-state effects.

Heshmatollah Yavari | Physics and Astronomy | Best Researcher Award

Prof. Heshmatollah Yavari | Physics and Astronomy | Best Researcher Award

Prof at Uiversity of Isfaha, Iran

Professor Heshmatollah Yavari is a distinguished academic in the field of theoretical physics, specializing in superconductivity, superfluidity, and strongly correlated systems. He has made significant contributions to the study of Bose-Einstein condensation, ultracold atomic gases, and topological insulators. His research interests extend to optical lattices, granular electronic systems, neutron stars, and the exploration of Majorana fermions. Professor Yavari’s teaching experience spans several advanced topics in physics, including quantum mechanics, many-body physics, and quantum field theory. His publications reflect a broad range of contributions to the understanding of thermal conductivity, viscosity, and magnetic properties in superfluid and superconducting systems, among other topics.

Professional Profile 

Education

Professor Yavari’s academic journey began with a BSc in Physics from the University of Tabriz, followed by an MSc from the University of Isfahan. He then pursued a PhD in Theoretical Physics at the University of Isfahan, where his research focused on the temperature dependence of transport and magnetic coefficients in superfluid and superconductor systems. His academic training laid the foundation for his extensive contributions to the study of condensed matter physics, leading him to a prominent role in both theoretical research and teaching.

Professional Experience

Professor Yavari has held various academic positions at the University of Isfahan. He began his career as an Assistant Professor in 2005 and was promoted to Associate Professor in 2010. In 2016, he was appointed as a Professor in the Department of Physics, where he continues to lead groundbreaking research. Throughout his career, he has actively engaged in the development of advanced courses in quantum mechanics, statistical mechanics, and condensed matter physics, contributing to the education and mentorship of numerous students in the field of physics. His professional experience extends to leadership roles in scientific research and publications, further solidifying his reputation as a leading figure in theoretical physics.

Research Interests

Professor Heshmatollah Yavari’s research interests lie at the intersection of condensed matter physics and quantum mechanics. He is particularly focused on superconductivity and superfluidity, with an emphasis on understanding the fundamental properties and behaviors of quantum systems at low temperatures. His work explores Bose-Einstein condensation, strongly correlated systems, and the phenomena of topological insulators and superconductors. Additionally, Professor Yavari investigates the behavior of ultracold atomic gases in optical lattices and the exotic properties of Majorana fermions, which have implications for quantum computing and high-energy physics. He is also interested in the thermal and transport properties of superfluid systems, neutron stars, and granular electronic systems. His theoretical research contributes to advancing the understanding of quantum matter and opens new avenues in both fundamental science and applied physics.

Awards and Honors

Professor Heshmatollah Yavari has received significant recognition for his contributions to theoretical physics, particularly in the fields of superconductivity and superfluidity. His research has been widely published in international journals, highlighting his influence and expertise in condensed matter physics. Although specific awards and honors are not mentioned, the continuous progression of his academic career, from Assistant Professor to Professor at the University of Isfahan, reflects his dedication and the respect he has earned within the scientific community. Additionally, his long-standing role as a mentor and educator in various advanced physics courses demonstrates his influence in shaping future generations of physicists. His work remains integral to the development of new theoretical models and experimental investigations in quantum physics.

Publications Top Noted

  • Effects of Rashba and Dresselhaus spin-orbit couplings on the critical temperature and paramagnetic limiting field of superconductors with broken inversion symmetry
    • Authors: Yavari, H., Tayebantayeba, M.
    • Year: 2024
    • Citations: 0
  • Impurity and hybridization effects on the symmetry classification and magnetic response function of a two-band superconductor with interband pairing order
    • Authors: Renani, F.A., Yavari, H.
    • Year: 2024
    • Citations: 0
  • Three-body and Coulomb interactions in a quasi-two-dimensional dipolar Bose-condensed gas
    • Authors: Moniri, S.M., Yavari, H., Darsheshdar, E.
    • Year: 2022
    • Citations: 2
  • Effects of hybridization and spin–orbit coupling to induce odd-frequency pairing in two-band superconductors
    • Authors: Tamadonpour, M., Yavari, H.
    • Year: 2021
    • Citations: 2
  • Shear viscosity in the strong interaction regime of a p-wave superfluid Fermi gas
    • Authors: Moniri, S.M., Yavari, H., Darsheshdar, E.
    • Year: 2021
    • Citations: 0
  • Anomalous viscosity of a chiral two-orbital superconductor in tight-binding model
    • Authors: Yazdani-Hamid, M., Yavari, H.
    • Year: 2021
    • Citations: 0
  • Progress in the development and construction of high temperature superconducting magnets
    • Authors: Yavari, H.
    • Year: 2020
    • Citations: 0
  • Effects of Thermally Induced Roton-Like Excitation on the Superfluid Density of a Quasi-2D Dipolar Bose Condensed Gas
    • Authors: Yavari, H., Forouharmanesh, F.
    • Year: 2020
    • Citations: 0
  • Effect of long-range 1/ r interaction on thermal and quantum depletion of a dipolar quasi-two-dimensional Bose gas
    • Authors: Tamaddonpur, M., Yavari, H., Saeidi, Z.
    • Year: 2019
    • Citations: 2
  • Effect of long-range 1/r interaction on thermal and quantum depletion of a dipolar quasi-two-dimensional Bose gas
    • Authors: Tamaddonpur, M., Yavari, H., Saeidi, Z.
    • Year: 2019
    • Citations: 0