Study on Effects of Free Convection on MHD Flows through Porous Medium

Academic Paper from the year 2019 in the subject Mathematics - Applied Mathematics, grade: A, Jawaharlal Nehru University (Madanapalle Institute of Science and Technology), course: Mathematics, language: English, abstract: Imagine a world where the invisible forces of magnetism dance with the subtle whispers of heat, all within the intricate labyrinth of porous materials. This book delves into that fascinating realm, exploring the complex interplay of free convection and Magnetohydrodynamic (MHD) flows. Uncover the secrets of how buoyancy-driven convection influences fluid dynamics as it navigates the tortuous paths of porous media. Through rigorous mathematical modeling and in-depth analysis, this study illuminates the fundamental principles governing these phenomena, offering new insights into areas as diverse as geothermal energy extraction, nuclear reactor cooling, and advanced filtration systems. Explore the profound impact of magnetic fields on fluid behavior within porous structures, revealing how these forces can be harnessed and manipulated for technological advancement. Journey through the intricacies of fluid flow, guided by the expertise of leading researchers Dr. K. Subbanna, Dr. S. Gouse Mohiddin, and Dr. R. Bhuvana Vijaya, whose profound understanding of applied mathematical sciences shapes the narrative. This research not only advances theoretical knowledge but also paves the way for practical applications, making it an invaluable resource for scientists, engineers, and anyone seeking to understand the hidden forces that shape our world. Discover the elegance and complexity of free convection in MHD flows, and unlock the potential for groundbreaking innovations in various fields. The book offers a comprehensive exploration of the governing equations, providing a solid foundation for further research and development. Witness how mathematical precision unveils the mysteries of these intricate systems, offering a glimpse into the future of fluid dynami