Elsevier Micro and Nanofluid Convection with Magnetic Field Effects for Heat and Mass Transfer Applications using MATLAB®

Product Description Micro and Nanofluid Convection with Magnetic Field Effects for Heat and Mass Transfer Applications using MATLAB examines the performance of micro and nanofluids with various physical effects such as magnetic field, slip effects, radiation and heat sources. Heat and mass transfer enhancement techniques are widely used in many applications in the heating and cooling or freezing process to make possible a reduction in weight and size or enhance performance during heat and mass exchanges. The book covers the two categories of flow techniques, active and passive. It discusses various considerations in the engineering sciences in the melting process, polymer industry and in metallurgy. To be more precise, it may be pointed out that many metal surgical developments involve the cooling of continuous strips or filaments by drawing them through a quiescent fluid, and in that process of drawing, these strips are sometimes stretched. In all these cases, the properties of the final product depend, to a great extent, on the rate of cooling by drawing such strips in an electrically conducting fluid subject to a magnetic field and thermal radiation. Review Detailed examination of modeling techniques for nanofluid flow for heat and mass transfer applications, with a particular focus on magnetic field effects From the Back Cover <i>Micro and Nanofluid Convection with Magnetic Field Effects for Heat and Mass Transfer Applications using MATLAB</i> examines the performance of micro and nanofluids with various physical effects such as magnetic field, slip effects, radiation, and heat sources, which helps to analyze the further scope of micro and nanofluids for a variety of practical applications.<br><br>Heat and mass transfer enhancement techniques are widely used in many applications in the heating and cooling or freezing process to make possible a reduction in weight and size or enhance the performance of heat and mass exchanges. There are two categories of techniques available. These are active and passive flow techniques. The passive techniques do not require any external force or power, whereas active techniques require external force or power to improve the heat and mass exchange system. When active techniques are used, swirling can happen in the manufacturing process. The insertion of swirl flow devices enhances the convective heat or mass transfer by making the swirl into the bulk flow and distracting the boundary layer at the surface due to repeated changes in the surface geometry. By avoiding swirling in the manufacturing process the passive techniques are most efficient.<br><br>The study of magnetic field and radiation effects has attracted various considerations in engineering sciences due to its extensive use in the melting process, polymer industry, and metallurgy where hydro-magnetic methods are being used. To be more precise, it may be pointed out that many metal surgical developments involve the cooling of continuous strips or filaments by drawing them through a quiescent fluid, and that in the process of drawing, these strips are sometimes stretched. In all these cases, the properties of the final product depend, to a great extent, on the rate of cooling by drawing such strips in an electrically conducting fluid subject to a magnetic field and thermal radiation. This book analyses the boundary value solutions in MATALB, since they are easy to use and effective, provided there are proper guess values.<br><br>This book is an important resource for materials scientists, mechanical engineers and energy scientist wanting to understand more about how nanofluid flow is used in the heat transfer process. About the Author His research interests are nonlinear dynamics, mathematical modeling, multi-phase flow modeling, nanofluids, controllability, mathematical biology, statistical mechanics, linear and nonlinear stability. His areas of research are in numerical methods, homotopy