Ahmad Ghanbari | Physical Chemistry | Best Researcher Award

Dr. Ahmad Ghanbari | Physical Chemistry | Best Researcher Award

Yasouj University | Iran

Dr. Ahmad Ghanbari is a distinguished physicist whose research in condensed matter physics and interdisciplinary theoretical modeling has positioned him among the top two percent of scientists worldwide in 2025. With a prolific record of 44 peer-reviewed publications, Dr. Ghanbari has made influential contributions to statistical mechanics, thermodynamics, biomedical physics, and quantum systems. His innovative application of non-extensive thermodynamic entropy provided a novel and highly accurate method for predicting the dynamics, spread, and mortality rates of COVID-19, demonstrating the power of physical models in epidemiological forecasting. In biomedical physics, he has pushed scientific boundaries by modifying the classical Lotka–Volterra equation to more accurately describe the competitive behavior between normal and cancerous cells, offering new perspectives for understanding tumor growth and treatment dynamics. His groundbreaking study on the thermodynamic behavior of cancer tumors, particularly the influence of a tilted external magnetic field on interstitial fluid pressure within spherical tumors, provides valuable theoretical insights that could support advancements in cancer therapy and targeted treatment strategies. Beyond biomedical applications, Dr. Ghanbari has conducted extensive research into the thermodynamic properties of diatomic molecules, contributing to a deeper understanding of molecular interactions and energy states. His work on quantum nanostructures further demonstrates his versatility, addressing complex quantum behaviors that underpin next-generation nano-devices and materials. Complementing his research excellence, Dr. Ghanbari has dedicated three years to teaching at Yasouj University, shaping the academic and scientific development of future physicists.

Profiles : Scopus | Google Scholar 

Featured Publications

Ghanbari, A. (2025). Theoretical calculations of thermal functions of diatomic molecules using shifted Deng-Fan potential. Computational and Theoretical Chemistry, 1248, 115186.

Ghanbari, A., & Khordad, R. (2025). A theoretical model to study the influence of an external tilted magnetic field on interstitial fluid flow inside a cylindrical tumor with capillaries. International Journal of Modern Physics C, 36(07), 2450251.

Ghanbari, A. (2025). Computational investigation of magnetic field effect on thermal function of diatomic molecules with anharmonic oscillator potential. Computational and Theoretical Chemistry, 1243, 114991.

Ghanbari, A., Khordad, R., & Ghaderi-Zefrehei, M. (2025). A modified Lotka–Volterra equation for the investigation of competition between normal and cancer cells. International Journal of Modern Physics C, 36(11), 1–12.

Ghanbari, A. (2024). Aharonov–Bohm flux, topological defect and magnetic field effects on the optical properties of quantum dots in a quantum-plasma environment. Journal of Computational Electronics, 23(1), 22–31.

P.Chandar Rao | Chemical Physics | Best Researcher Award

Dr. P. Chandar Rao | Chemical Physics | Best Researcher Award

Lecturer | Kakatiya University | India

Dr. Panthagani Chandar Rao, a distinguished researcher at Kakatiya University, has made remarkable contributions to the field of luminescent materials, nanophosphors, and nanotechnology. With a Ph.D. in Physics, his research focuses primarily on the design, synthesis, and characterization of lanthanide-doped phosphors and advanced optical materials for modern photonic and display applications. Dr. Rao has developed eco-friendly and cost-effective strategies for fabricating Eu²⁺-doped BaMgAl₁₀O₁₇ nanophosphors that exhibit narrow-band blue emission with high luminescence efficiency, contributing to sustainable and high-performance optoelectronic devices. His studies reveal how modifications in synthesis parameters, including low-temperature processes and the use of MCCA additives, influence the structural and photoluminescent properties of nanophosphors, providing insights critical for active display technologies. He has also investigated unusual red-shifts and enhanced photoluminescence under ultraviolet A excitation, highlighting his focus on material optimization for practical applications. Beyond phosphors, Dr. Rao explores nanobiomaterials derived from natural leaves, bridging materials science and green nanotechnology, as well as the broader applications of nanotechnology in luminescent devices. His work extends to thin-film materials, including V₂O₅, where he studies structural, linear, nonlinear, and optical properties using low-cost sol-gel techniques. As an active member of the Luminescence Society of India, the Indian Physics Teachers Association, and the Indian Science Congress, Dr. Rao combines research excellence with academic mentorship, fostering the next generation of scientists. To date, he has authored four high-quality publications, garnering 30 citations, and maintains an h-index of 2 in Scopus, reflecting the growing impact of his research contributions in luminescent nanomaterials and sustainable nanotechnology.

Profiles : Scopus | Research Gate

Featured Publications

  • Chandar Rao, P., Durga Prasad, K. A. K., Sreelatha, C. J., & Haranath, D. (2025). Eco-friendly and cost-effective synthesis approach with no waste generation in developing narrow-band and efficient blue-emitting Eu²⁺-doped BaMgAl₁₀O₁₇ nanophosphor. Journal of Materials Science: Materials in Electronics.

  • Chandar Rao, P., Jaiswal, V. V., Mishra, S., et al. (2021). Influence of MCCA on structure and photoluminescence of Eu²⁺ doped BaMgAl₁₀O₁₇: Eu²⁺ nanophosphor for use in active displays. Chemical Physics Letters, 769, 138410.

  • Jaiswal, V. V., Chandar Rao, P., et al. (2021). Luminescence enhancement of high temperature hexagonal phase of Ba₀.₉₉MgAl₁₀O₁₇:Eu₀.₀₁ nanophosphor synthesized at moderately low temperature. Materials Science & Engineering B, 263, 114791.

  • Chandar Rao, P., Shivani, Jaiswal, V. V., et al. (2020). Unusual red-shift and enhanced photoluminescence of BaMgAl₁₀O₁₇:Eu²⁺ phosphor under ultraviolet A excitation for modern lighting systems. Journal of Nanoscience and Nanotechnology, 20, 3854–3858.

  • Ravinder, G., Sreelatha, C. J., Ganesh, V., Shakir, M., Anis, M., & Chandar Rao, P. (2019). Thickness dependent structural, spectral, linear, nonlinear, and z-scan optical studies of V₂O₅ thin films prepared by a low-cost sol-gel spin coating technique. Materials Research Express, 6, 096403.