Transport processes are often characterized by the simultaneous presence of multiple dependent variables, multiple length scales, body forces, free boundaries and strong non-linearities. The various computational elements important for the prediction of complex fluid flows and interfacial transport are presented in this volume. Practical applications, presented in the form of illustrations and examples are emphasized, as well as physical interpretation of the computed results. The book is intended as a reference for researchers and graduate students in mechanical, aerospace, chemical and materials engineering. Both macroscopic and microscopic (but still continuum) features are addressed. In order to lay down a good foundation to facilitate discussion of more advanced techniques, the book has been divided into three parts. Part I presents the basic concepts of finite difference schemes for solving parabolic, elliptic and hyperbolic partial differential equations. Part II deals with issues related to computational modeling for fluid flow and transport phenomena. Existing algorithms to solve the Navier-Stokes equations can be generally classified as density-based methods and pressure-based methods. In this book the pressure-based method is emphasized. Recent efforts to improve the performance of the pressure-based algorithm, both qualitatively and quantitatively, are treated, including formulation of the algorithm and its generalization to all flow speeds, choice of coordinate system and primary velocity variables, issues of grid layout, open boundary treatment and the role of global mass conservation, convection treatment and convergence. Practical engineering applications, including gas-turbine combustor flow, heat transfer and convection in high pressure discharge lamps, thermal management under microgravity, and flow through hydraulic turbines are also discussed. Part III addresses the transport processes involving interfacial dynamics. Specifically those influenced by phase change, gravity, and capillarity are emphasized, and both the macroscopic and morphological (microscopic) scales are presented. Basic concepts of interface, capillarity, and phase change processes are summarized to help clarify physical mechanisms, followed by a discussion of recent developments in computational modeling. Numerical solutions are also discussed to illustrate the salient features of practical engineering applications. Fundamental features of interfacial dynamics have also been illustrated in the form of case studies, to demonstrate the interplay between fluid and thermal transport of macroscopic scales and their interaction with interfacial transport.
The CFD algorithm can be constructed through a direct modeling of flow motion in such a space. This book presents the principle of direct modeling for the CFD algorithm development, and the construction unified gas-kinetic scheme (UGKS).
This book will become the standard reference for CFD for the next 20 years. The book is aimed at graduate students, researchers, engineers and physicists involved in flow computations.
Bringing computational fluid dynamics, thermodynamics and electrodynamics together, this is a useful source for materials scientists, PhD students, solid state physicists, process engineers and mechanical engineers, as well as lecturers in ...
Dale Anderson, John C. Tannehill, Richard H. Pletcher, Ramakanth Munipalli, Vijaya Shankar. Hilgenstock, A. (1988). ... Hindman, R. G. and Spencer, J. (1983). A new approach to truly adaptive grid generation, AIAA Paper 83-0450, Reno, ...
Although some doubts on the accuracy of numerical simulations results, this numerical tool has been validated as being feasible in modelling complicated biological fluid dynamics, through a series of stepwise baseline benchmark tests ...
Analysis of multidimensional phase change via the enthalpy model . J. Heat Transfer , Trans . ASME 19 , 333–340 . Shyy , W. 1994. Computational Modeling for Fluid Flow and Interfacial Transport . Amsterdam : Elsevier .
Computational Modeling for Fluid Flow and Interfacial Transport. Amsterdam: Elsevier, 1994. H. Kopetsch. A numerical method for the time-dependent Stefan-problem in Czochralski crystal growth. J Crystal Growth 88: 71, 1988; H. Kopetsch.
This text describes several computational techniques that can be applied to a variety of problems in thermo-fluid physics, multi-phase flow, and applied mechanics involving moving flow boundaries. 1996 edition.
Department of Chemical and Process Engineering, University of Sheffield, Newcastle Street, Sheffield S1 3JD United Kingdom *Department of Applied Mathematics, University of Sheffield, Hicks Building, Sheffield Vector calculus underpins ...
4, 379 (1988) W. Shyy: Computational Modeling for Fluid Flow and Interfacial Transport (Elsevier, Amsterdam 1994) W. Shyy, H.S. Udaykumar, M.M. Rao, R.W. Smith: Computational Fluid Dynamics with Moving Boundaries (Taylor & Francis, ...