Computational Fluid Dynamics by Jiyuan Tu; Guan-Heng Yeoh; Chaoqun Liu

Computational Fluid Dynamics with Moving Boundaries by Wei Shyy; Madhukar M. Rao; Richard W. Smith; H. S. Udaykumar

CRC Handbook of Thermal Engineering by Raj P. Chhabra (Editor)

Fluid Dynamics by Peter Bernard

Fluid Dynamics Via Examples and Solutions by Sergey Nazarenko

Fluid Power Pumps and Motors: Analysis, Design and Control by Noah D. Manring

Fundamentals of Turbomachines by Erik Dick

Geophysical Fluid Dynamics II by Emin Özsoy

Introduction to Fluid Dynamics by Edward B. McLeod, Jr.

Introduction to Mathematical Fluid Dynamics by Richard E. Meyer

An Introduction to SOLIDWORKS Flow Simulation 2016 by John Matsson

Introduction to Thermal and Fluid Engineering by Allan D. Kraus; James R. Welty; Abdul Aziz

Principles of Fluid Mechanics by Jürgen Zierep; Karl Bühler

Understanding Fluid Flow by M. G. Worster; Grae Worster

Applied Fluid Mechanics for Engineers by Meinhard T. Schobeiri

Engineering Fluid Mechanics by Hongqing Song

Flow Visualization in Materials Processing by Tomomasa Uemura; Manabu Iguchi; Yoshiaki Ueda

Fluid Mechanics and Heat Transfer by William Roy Penney (Editor); Edgar C. Clausen (Editor)

Fluid Mechanics and Thermodynamics of Turbomachinery by S. L. Dixon; Cesare Hall

Fluid Mechanics Experiments by Robabeh Jazaei

An Introduction to Computational Fluid Mechanics by Example by Sedat Biringen; Chuen-Yen Chow

An Introduction to Fluid Mechanics by Chung Fang

Introduction to Thermal and Fluids Engineering by Michael K. Jensen; Deborah A. Kaminski

Introductory Fluid Mechanics by Joseph Katz

Principles of Fluid Mechanics by Jürgen Zierep; Karl Bühler

Principles of Hydraulic Systems Design, Second Edition by Peter Chapple

Problems in Hydraulics and Fluid Mechanics by Sandro Longo; Maria Giovanna Tanda; Luca Chiapponi

Property Tables for Thermal Fluids Engineering by Stephen Turns; David Kraige; Stephen R. Turns; David R. Kraige

Springer Handbook of Experimental Fluid Mechanics by Cameron Tropea (Editor); John F. Foss (Editor); Alexander L. Yarin (Editor)

Statistical Fluid Mechanics by John L. Lumley (Editor); A. S. Monin; A. M. Yaglom

Unsteady Flow in Open Channels by Jurjen A. Battjes; Robert Jan Labeur

A Computational Approach to Physics by M. Ebrahim Foulaadvand

Energy Efficiency of Vehicles by Doug Carroll (Editor)

Handbook of Hydraulic Fluid Technology, Second Edition by George E. Totten (Editor); Victor J. De Negri (Editor)

Injection Technologies and Mixture Formation Strategies for Spark Ignition and Dual-Fuel Engines by Alessandro Ferrari; Pietro Pizzo

Introducing Hydrogeology by Robins Nicholas

Introduction to Energy Analysis by Kornelis Blok; Evert Nieuwlaar

Principles of Turbulence Control by Baochun Fan; Gang Dong

Advances in Fluid Dynamics with Emphasis on Multiphase and Complex Flow by Santiago Hernandez (Editor); Peter Vorobieff (Editor) The field of fluid mechanics is vast and has numerous and diverse applications. Presented papers from the 11th International Conference on Advances in Fluid Dynamics with emphasis on Multiphase and Complex Flow are contained in this book and cover a wide range of topics, including basic formulations and their computer modelling as well as the relationship between experimental and analytical results.Innovation in fluid-structure approaches including emerging applications as energy harvesting systems, studies of turbulent flows at high Reynold number, or subsonic and hypersonic flows are also among the topics covered.The emphasis placed on multiphase flow in the included research works is due to the fact that fluid dynamics processes in nature are predominantly multi-phased, i.e. involving more than one phase of a component such as liquid, gas or plasma. The range of related problems of interest is vast: astrophysics, biology, geophysics, atmospheric processes, and a large variety of engineering applications.Multiphase fluid dynamics are generating a great deal interest, leading to many notable advances in experimental, analytical, and numerical studies in this area. While progress is continuing in all three categories, advances in numerical solutions are likely the most conspicuous, owing to the continuing improvements in computer power and the software tools available to researchers. Progress in numerical methods has not only allowed for the solution of many practical problems but also helped to improve our understanding of the physics involved. Many unresolved issues are inherent in the very definition of multiphase flow, where it is necessary to consider coupled processes on multiple scales, as well as the interplay of a wide variety of relevant physical phenomena.

Classical Fluid Mechanics by Michael Belevich This text book primarily explains the construction of the classical fluid model to readers in a holistic manner. Secondly, the book also explains some possible modifications of the classical fluid model which either make the model applicable in some special cases (viscous or turbulent fluids) or simplify it in accordance with the specific mechanical properties (hydrostatics, two-dimensional flows, boundary layers, etc.).The book explains theoretical concepts in two parts. The first part is dedicated to the derivation of the classical model of the perfect fluid. The second part of the book covers important modifications to the fluid model which account for calculations of momentum, force and the laws of energy conservation. Concepts in this section include the redefinition of the stress tensor in cases of viscous or turbulent flows and laminar and turbulent boundary layers.The text is supplemented by appropriate exercises and problems which may be used in practical classes. These additions serve to teach students how to work with complex systems governed by differential equations.Classical Fluid Mechanics is an ideal text book for students undertaking semester courses on fluid physics and mechanics in undergraduate degree programs.

The Fluid Catastrophe by John Reid, Author

Fluid Dynamics by Anatoly I. Ruban; Jitesh S. B. Gajjar This is the first book in a four-part series designed to give a comprehensive and coherent description of Fluid Dynamics, starting with chapters on classical theory suitable for an introductory undergraduate lecture course, and then progressing through more advanced material up to the level of modern research in the field. The present Part 1 consists of four chapters. Chapter 1 begins with a discussion of Continuum Hypothesis, which is followed by an introduction to macroscopic functions, the velocity vector, pressure, density, and enthalpy. We then analyse the forces acting inside a fluid, and deduce the Navier-Stokes equations for incompressible and compressible fluids in Cartesian and curvilinear coordinates. In Chapter 2 we study the properties of a number of flows that are presented by the so-called exact solutions of the Navier-Stokes equations, including the Couette flow between two parallel plates, Hagen-Poiseuille flow through a pipe, and Karman flow above an infinite rotating disk. Chapter 3 is devoted to the inviscid incompressible flow theory, with particular focus on two-dimensional potential flows. These can be described in terms of the "complex potential", allowing the full power of the theory of functions of complex variables to be used. We discuss in detail the method of conformal mapping, which is then used to study various flows of interest, including the flows past Joukovskii aerofoils. The final Chapter 4 is concerned with compressible flows of perfect gas, including supersonic flows. Particular attention is given to the theory of characteristics, which is used, for example, to analyse the Prandtl-Meyer flow over a body surface bend and a corner. Significant attention is also devoted to the shock waves. The chapter concludes with analysis of unsteady flows, including the theory of blast waves.

The Physics of Flow Through Porous Media by Adrian E. Scheidegger Here in one volume is summarized a vast amount of information on the physical principles of hydrodynamics in porous media, gathered from numerous publications. This new edition represents a substantial revision of the second, incorporating the most recent developments in the field. Alterations have been made throughout, new sections have been added, and the chapter on 'Miscible Displacement' has been rewritten. As in previous editions, the stress is on general physical aspects of phenomena rather than on particular cases, on theoretical rather than experimental aspects have been emphasized. Literature references have been chosen carefully to lead the reader to the most useful sources of additional information on particular aspects.

Relativistic Fluid Dynamics in and Out of Equilibrium by Paul Romatschke; Ulrike Romatschke The past decade has seen unprecedented developments in the understanding of relativistic fluid dynamics in and out of equilibrium, with connections to astrophysics, cosmology, string theory, quantum information, nuclear physics and condensed matter physics. Romatschke and Romatschke offer a powerful new framework for fluid dynamics, exploring its connections to kinetic theory, gauge/gravity duality and thermal quantum field theory. Numerical algorithms to solve the equations of motion of relativistic dissipative fluid dynamics as well as applications to various systems are discussed. In particular, the book contains a comprehensive review of the theory background necessary to apply fluid dynamics to simulate relativistic nuclear collisions, including comparisons of fluid simulation results to experimental data for relativistic lead-lead, proton-lead and proton-proton collisions at the Large Hadron Collider (LHC). The book is an excellent resource for students and researchers working in nuclear physics, astrophysics, cosmology, quantum many-body systems and string theory.