Work place: Department of Mathematics, University of Ilorin, Ilorin, Nigeria
E-mail: fifelolaemmanuel@gmail.com
Website:
Research Interests:
Biography
Rapheal Oladipo Fifelola is a mathematician whose academic training includes a Bachelor of Science degree in Mathematics from Ekiti State University (formerly University of Ado-Ekiti) and a Master of Science in Mathematical Sciences from the Nigerian Defence Academy, Kaduna. He is currently a PhD student at the University of Ilorin, Nigeria, specialising in mathematical modelling. His research focuses on nonlinear partial differential equations, harmonic analysis, and dispersive equations, with particular interest in the long-time behaviour of solutions to Schrödinger-type equations in exterior and unbounded domains. He has contributed to peer-reviewed research on mathematical modelling and stability analysis, including works on heat equations and Lanchester warfare models.
By Elijah Falode Mustapha Danjuma Suleiman Rapheal Oladipo Fifelola Adeel Shaikh Muhammad Ravitheja Chinni
DOI: https://doi.org/10.5815/ijmsc.2026.02.03, Pub. Date: 8 Jun. 2026
Optimizing load balancing in cloud-based healthcare systems is critical for improving system performance, particularly in terms of reducing latency, increasing throughput, and enhancing task completion time. This study investigates the impact of optimization algorithms, specifically Genetic Algorithm (GA) and Simulated Annealing (SA), on the efficiency of cloud resource allocation in healthcare applications. Additionally, we incorporate queuing theory and stochastic processes to model the task arrival and server load dynamics. By applying these optimization techniques, the system performance was evaluated, showing significant improvements in the key performance metrics. The results highlighted a 50% improvement in latency, 50% increase in throughput, and 25% reduction in task completion time. The optimized system demonstrated enhanced resource utilization, ensuring more efficient real-time data processing in cloud healthcare environments. The proposed approach shows promising results for future applications in dynamic healthcare workload management.
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