Dr. Anup Debnath | Experimental Physics | Editorial Board Member

Dr. Anup Debnath | Experimental Physics | Editorial Board Member

Pachhunga University College | India

Dr. Anup Debnath is a materials physicist specializing in two-dimensional materials, magnetic nanostructures, transition-metal dichalcogenides, and MXene-based functional systems. His research focuses on understanding growth mechanisms, interfacial charge-transfer phenomena, and structure–property–performance relationships in emerging 2D architectures for electronic, magnetic, and energy-storage applications. He has developed strong expertise in advanced synthesis routes including hydrothermal, solvothermal, reflux, thermolysis, and chemical vapour deposition techniques for preparing high-quality TMDs, non-van der Waals magnets, and MXene derivatives. His experimental strengths extend across a broad spectrum of characterization tools such as XRD, Raman spectroscopy, XPS, TEM, AFM, SQUID magnetometry, PPMS measurements, UV-Vis spectroscopy, and FTIR, complemented by theoretical skills in Rietveld refinement and DFT-based calculations using MAUD and CASTEP. Dr. Debnath’s research contributions include revealing ferromagnetic and ferrimagnetic ordering in chemically synthesized 2D systems, designing MXene-integrated heterostructures, developing high-performance electrocatalysts, and engineering nanomaterials for hydrogen evolution, photothermal conversion, and supercapacitor applications. His publications in leading journals cover diverse topics ranging from magnetic coupling in low-dimensional systems to coercivity enhancement, phase engineering of TMDs, photothermal nanorods, hybrid perovskites, and advanced MXene composites. He has also contributed to conference proceedings and presented widely at national and international scientific platforms, earning recognition for excellence in both poster and oral presentations. His scholarly footprint continues to grow, currently reflected by 228 citations across 205 documents, 19 publications, and an h-index of 7, underscoring his expanding impact in the fields of experimental condensed matter physics and nanomaterials research.

Featured Publications

(2025). Vertically tilted SnS₂ grown on highly conductive Ti₃C₂Tₓ for electrochemical energy storage applications. Journal of Energy Storage.

 

Bedanga Bora | Physics | Young Scientist Award

Mr. Bedanga Bora | Physics | Young Scientist Award

University of Science and Technology, Meghalaya | India

Mr. Bedanga Bora the research explores the interplay between quantum physics, cosmology, and computational modeling to understand the underlying structure of the universe through both theoretical and numerical approaches. Current work investigates quantum cosmology, anisotropic expansion models, and flat-universe dynamics using FRW and Bianchi-type formalisms, employing mathematical tools such as Christoffel symbols, Dingle methods, and differential modeling to analyze early-universe behavior and potential quantum origins of spacetime. Complementary studies in magnetohydrodynamics and biomedical physics involve modeling non-Newtonian blood flow under external magnetic fields using the Herschel–Bulkley rheological framework and simulating induced magnetic fields for therapeutic applications in arterial stenosis, including nanofluid-based enhancements. Parallel research in computational biology examines the convergence of artificial and biological learning systems by simulating neural-organoid behavior, synaptic plasticity, dropout analogies, and cellular dynamics through 3D Python-based visualizations. Additional work extends to quantum communication, where theoretical models are developed to analyze the entanglement stability of nitrogen-vacancy centers in diamond lattices at room temperature. Across these domains, the overarching objective is to integrate insights from quantum theory, high-dimensional modeling, and computational simulations to construct deeper frameworks that explain how microscopic quantum mechanisms influence macroscopic physical laws and complex biological systems.

Featured Publications

Bora, B. B., Shyam, A., Borgohain, N., & Borah, J. (2025). Beyond the Big Bang: Quantum cosmology’s role in defining the universe’s origin (Preprint). SSRN. https://doi.org/10.2139/ssrn.5170395

 Shyam, A., Sarma, G., & Bora, B. B. (2025). Study of a flat universe using the FRW model. Theoretical and Mathematical Physics, 223, 952–959. https://doi.org/10.1134/s004057792506008x

Shyam, A., Bora, B. B., Sarma, G., & Borah, J. (2025). Exploring anisotropic expansion in Bianchi Type III cosmological models in closed spatial geometries: Insights from Christoffel symbols and Dingle methods. Zenodo. https://doi.org/10.5281/zenodo.15030575