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Ephesus O. Fatunmbi

0000-0001-8656-6520

Publications (7)

Thermal Performance and Entropy Generation of MHD Casson Fluid with Temperature-Dependent Viscosity

Ephesus O. Fatunmbi, S. A. Adegbenro, O. P. Durojaye & O. A. Olaiju · Current Journal of Applied Science and Technology · 2026

The thermal management and thermodynamic assessment of non-Newtonian fluid flow over stretching surfaces remain important in manufacturing and engineering processes involving electrically conducting fluids. This study examines the thermal performance and entropy generation of a s...

Open access Research Article 10.9734/cjast/2026/v45i84731

Entropy Generation and Bejan Number Analysis in Micropolar Fluid Flow with Variable Thermal Conductivity

Ephesus O. Fatunmbi, S. A. Odunlami, O. A. Olaiju, O. P. Durojaye & S. A. Adegbenro · Journal of Engineering Research and Reports · 2026

This study examines entropy generation and Bejan number behaviour in steady, two-dimensional, incompressible micropolar fluid flow over a linearly stretching sheet with variable thermal conductivity. The flow is considered in the presence of a transverse magnetic field and a homo...

Open access Research Article 10.9734/jerr/2026/v28i71946

Thermofluid-inspired Nonlinear Entropy Model of Financial Markets with Time-varying External Shocks

Ephesus O. Fatunmbi, Akinde, Mukail Aremu, Olubisi L. Aako & Olusegun A. Olaiju · Current Journal of Applied Science and Technology · 2026

This study develops a thermofluid-inspired nonlinear entropy model to investigate uncertainty, instability, and risk propagation in financial markets under time-varying external shocks. The model is formulated as a nonlinear reaction–diffusion equation incorporating logistic-type...

Open access Research Article 10.9734/cjast/2026/v45i44688

Entropy Dynamics in Financial Systems: A Thermofluid Framework for Risk, Uncertainty, and Market Inefficiency

Ephesus O. Fatunmbi, Mukail A. Akinde & Olubisi L. Aako · Journal of Economics, Management and Trade · 2026

This investigation presents a brand-new thermodynamic approach to financial system analysis based on entropy generation concepts from fluid mechanics and heat transfer theory. The concept of financial entropy is utilized to quantify uncertainty in financial markets, and a governi...

Open access Research Article 10.9734/jemt/2026/v32i41414

Harnessing Hydromagnetic Tangent Hyperbolic Hybrid Nanofluids for Enhanced Heat Transfer and Energy Efficiency in Concentrated Solar Power Systems

O. J. Olanrewaju, Ephesus O. Fatunmbi & S. O. Salawu · Journal of Energy Research and Reviews · 2026

In recent years, the development of advanced heat transfer fluids for high-performance thermal systems has attracted significant attention due to increasing energy demands in process industries, electronics cooling, and renewable energy applications. Nanofluids have been widely u...

Open access Research Article 10.9734/jenrr/2026/v18i4508

Fast and Physically Constrained Modelling of Solar PV Power Output Using an Optimized Ordinary Differential Equation (ODE) Framework

Olusegun A. Olaiju, Olumuyiwa A. Agbolade & Ephesus O. Fatunmbi · Journal of Energy Research and Reviews · 2026

This study develops and validates a physically informed ordinary differential equation (ODE) model for predicting photovoltaic (PV) power output under varying environmental conditions. The proposed framework couples panel thermal dynamics with temperature-dependent electrical eff...

Open access Research Article 10.9734/jenrr/2026/v18i5509

Performance Evaluation of Solar-Based Hybrid Energy Systems Integrating Renewable and Conventional Sources in Nigeria

Opeyemi A. Olusola, Olusegun A. Olaiju & Ephesus O. Fatunmbi · Journal of Engineering Research and Reports · 2025

Hybrid energy systems that integrate solar power with other renewable or conventional sources provide a robust solution to intermittency and reliability challenges in Nigeria. This study evaluates the performance of such systems using 1,000 hours of operational data and key perfo...

Open access Research Article 10.9734/jerr/2025/v27i121746