Dr. MIKHAN’s research expertise encompasses applied mathematics, fluid mechanics, computational fluid dynamics (CFD), and optimization strategies for renewable energy applications. His work is particularly focused on Latent Heat Thermal Energy Storage (LHTES), employing nano-enhanced phase change materials (Nano-PCMs) and hybrid nanofluids to improve energy efficiency and sustainability. Additionally, his research integrates nanotechnology, entropy analysis, and heat transfer to advance thermal management systems.
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This editorial outlines the evolving role of thermo-fluid sciences in advancing sustainable energy systems amid the global energy transition. It highlights key research frontiers, including decarbonization of thermal power and propulsion, next-generation renewable thermal technologies, advanced thermal management and energy storage, innovative working fluids, and the integration of AI/ML with high-fidelity simulations. The journal calls for interdisciplinary, multi-scale studies that link fundamental thermo-fluid advances to system-level sustainability impacts, such as exergy efficiency, life-cycle emissions, and grid resilience. IJTFSSE aims to serve as a leading platform for rigorous resea... More >
This study presents an analytical mathematical model for an integrated microbial fuel cell--oxic--anoxic bioreactor (MFC--OB--ANB) system designed for simultaneous slaughterhouse wastewater treatment and energy recovery. The model incorporates bioelectrochemical oxidation, nitrification, and denitrification processes using acetate as a representative substrate. Closed-form analytical solutions are derived for substrate degradation, nitrogen transformation, current density, and system voltage. The effects of biofilm thickness, membrane conductivity, and influent substrate concentration on treatment efficiency and power generation are systematically investigated. Results reveal that enhanced b... More >
This study describes convective temperature and mass transport in a magnetohydrodynamic nanofluid moving via an absorbing channel stretched across an extensive region while being influenced by a securing region. The analytical framework incorporates a multitude of factors including heat generation, thermal radiation effects, viscous dissipation, and chemical reaction implications. The influences of porosity, warm production, thermal emission, attractive fields, sticky indulgence, and substance reactions on the flow dynamics are absolutely expounded across a spectrum of governing parameters. Furthermore, it is posited that regulation can be applied to the nanoparticle volume segment at the bo... More >
