http://www.loc.gov/mods/v3 http://www.loc.gov/standards/mods/v3/mods-3-2.xsd
1 online resource (xxvii, 193 pages) : illustrations (some color)
This authored monograph provides a detailed discussion of the boundary layer flow due to a moving plate. The topical focus lies on the 2- and 3-dimensional case, considering axially symmetric and unsteady flows. The author derives a criterion for the self-similar and non-similar flow, and the turbulent flow due to a stretching or shrinking sheet is also discussed. The target audience primarily comprises research experts in the field of boundary layer flow, but the book will also be beneficial for graduate students.
Preface; Acknowledgements; Contents; List of Figures; List of Tables; Introduction; Essential Fundamental Material; 1 Viscous Flow Due to Moving Continuous Surfaces; 1.1 Sakiadis Flow; 1.2 Stretching Sheet Flow; 1.2.1 Crane's Flow; 1.2.2 Power-Law and Exponential Stretching Velocities; 1.3 Shrinking Sheet Flow; References; 2 Governing Equations; 2.1 Boundary-Layer Equations; 2.1.1 The Boundary-Layer Assumption; 2.1.2 The Pressure Gradient Term; 2.1.3 Boundary-Layer Equations in Cartesian Coordinates; 2.1.4 Boundary-Layer Equations in Cylindrical Coordinates; 2.2 Momentum Integral Equations
2.2.1 In Cartesian Coordinates2.2.2 In Cylindrical Coordinates; References; 3 The Concept of Self-similarity; 3.1 In View of Group Theoretic Approach; 3.2 Physical Meanings; 3.3 General Theory; References; 4 Solution Techniques; 4.1 Series Solution; 4.2 Numerical Methods; 4.2.1 RK Methods/Built-in Packages; 4.2.2 Keller's Box Method; 4.3 Integral Methods; References; Self-similar Flows; 5 The Criterion of Self-similarity for Wall Velocities; 5.1 Two-Dimensional Flow; 5.2 Three-Dimensional Flow; 5.3 Axially Symmetric Flow; 5.3.1 Moving Cylinder; 5.3.2 Radial Motion of Flexible Disk
5.4 Restriction on Wall Suction/InjectionReferences; 6 Viscous Flow Due to Accelerated/Decelerated Stretching Surfaces; 6.1 Two-Dimensional Case; 6.2 Three-Dimensional Case; 6.3 Axially Symmetric Case; 6.3.1 Continuous Stretching Cylinder; 6.3.2 Radially Stretching Disk; 6.4 Surface Texture; References; 7 Viscous Flow Due to the Shrinking Surfaces; 7.1 An Overview of Existing Literature; 7.2 Erroneousness of the Existing Shrinking Sheet Results; 7.3 Accelerated/Decelerated Shrinking Wall Velocities; 7.4 Correct Self-similar Formulation
7.5 Viscous Flow Due to an Accelerated/Decelerated Shrinking Sheet7.6 Axially Symmetric Flow; References; 8 Unsteady Flow Due to the Stretching/Shrinking Surfaces; 8.1 Criterion of Self-similarity; 8.1.1 Two-Dimensional Case; 8.1.2 Axially Symmetric Case; 8.2 Two-Dimensional Unsteady Self-similar Flow; 8.2.1 Stretching Sheet Flow; 8.2.2 Shrinking Sheet Flow; 8.3 Axially Symmetric Unsteady Self-similar Flow; 8.3.1 The Cylinder Case; 8.3.2 The Disk Case; Reference; Non-similar Flows; 9 Two-Dimensional Non-similar Flows; 9.1 Non-similar Governing Equations
9.2 Accelerated/Decelerated Non-similar FlowsReference; 10 Axially Symmetric Non-similar Flows; 10.1 Governing Equations; 10.2 The Cylinder Case; 10.2.1 Sakiadis Flow; 10.2.2 Accelerated/Decelerated Flow; 10.3 The Disk Case; References; 11 Time-Dependent Non-similarity; 11.1 Two-Dimensional Unsteady Non-similar Flows; 11.1.1 Oscillatory Stretching of the Sheet; 11.2 Axially Symmetric Unsteady Non-similar Flows; 11.2.1 The Case of Oscillatory Stretching; References; Turbulent Flows; 12 Turbulent Flow Due to Moving Continuous Surfaces; 12.1 Turbulent Sakiadis Flow; 12.1.1 Two-Dimensional Case
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