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LAMINAR FLOW ANALYSIS
by David F. Rogers |
Preface | xi | |
Chapter 1 | Derivation of the Navier-Stokes Equations | 1 |
1-1 | Introduction | 1 |
1-2 | Stress-Rate-of-Strain Relation | 7 |
1-3 | Angular Velocity and Fluid Deformation | 8 |
1-4 | The Viscosity Coefficients of Fluids | 12 |
1-5 | The Momentum Equation | 12 |
1-6 | Derivation of the Energy Equation | 13 |
1-7 | Boundary Conditions | 20 |
1-8 | Equation of State and the Relation of the | |
Transport Properties to the State Variables | 21 | |
1-9 | Special Forms of the Navier-Stokes Equations | 21 |
1-10 | Classification | 22 |
Chapter 2 | Exact Solutions of the Navier-Stokes Equations | 23 |
2-1 | Introduction | 23 |
2-2 | Analytical Solutions | 23 |
2-3 | Parallel Flow Through a Straight Channel | 24 |
2-4 | Couette Flow | 26 |
2-5 | The Suddenly Accelerated Plane Wall | 28 |
2-6 | Similarity Analysis | 31 |
2-7 | Two-dimensional Stagnation Point Flow | 35 |
2-8 | Iteration Scheme | 40 |
2-9 | Numerical Solution | 41 |
2-10 | Axisymmetric Stagnation Point Flow | 44 |
Chapter 3 | Boundary Layer Theory | 53 |
3-1 | Concept of a Boundary Layer | 53 |
3-2 | Derivation of the Boundary Layer Equations | 54 |
3-3 | The Flow Past a Flat Plate - Blasius Solution | 60 |
3-4 | The General Two-dimensional Incompressible | |
Boundary Layer - The Falkner-Skan Equations | 65 | |
3-5 | Group Properties of the Blasius Equation | 69 |
3-6 | Numerical Integration of the Falkner-Skan Equation | 70 |
3-7 | Skin Friction, Displacement and Momentum Thickness | 77 |
3-8 | Physical Interpretation of the Falkner-Skan Equation | 81 |
3-9 | Axisymmetric Boundary Layers - | |
The Mangler Transformation | 84 | |
3-10 | Boundary Layers with Mass Transfer | 90 |
3-11 | Nonsimilar Boundary Layers | 93 |
3-12 | Locally Nonsimilar Boundary Layer Method | 96 |
Chapter 4 | Thermal Layers and Forced Convection Boundary Layers | 105 |
4-1 | Introduction | 105 |
4-2 | General Characteristics of Thermal Layers | 105 |
4-3 | Simple Couette Flow | 110 |
4-4 | Nonsimple Couette Flow | 115 |
4-5 | Flow in a Channel with Straight Parallel Walls - | |
Poiseuille Flow | 119 | |
4-6 | The Energy Equation for the Boundary Layer | 122 |
4-7 | Forced Convection Boundary Layer - | |
Parallel Flow Past a Flat Plate | 127 | |
4-8 | Forced Convection Boundary Layer Flows with | |
Pressure Gradient and Nonisothermal | ||
Surface Conditions | 136 | |
4-9 | Numerical Integration of the Energy Equation | |
for a Forced Convection Boundary Layer | 139 | |
4-10 | Forced Convection Boundary Layer Flows | |
with Mass Transfer | 147 | |
4-11 | Nonsimilar Forced Convection Boundary Layer | 154 |
Chapter 5 | Free Convection Boundary Layers | 159 |
5-1 | Introduction | 159 |
5-2 | Free Convection Boundary Layers | 159 |
5-3 | Numerical Integration of the Free Convection | |
Boundary Layer Equations | 164 | |
5-4 | Results for a Free Convection Boundary Layer | |
on an Isothermal Vertical Flat Plate | 164 | |
5-5 | Results for a Free Convection Boundary Layer | |
on a Nonisothermal Vertical Flat Plate | 170 | |
5-6 | Free Convection Boundary Layer on a Nonisothermal | |
Vertical Flat Plate with Mass Transfer | 173 | |
5-7 | Nonsimilar Free Convection Boundary Layer | 178 |
5-8 | Nonsimilar Free Convection Boundary Layer | |
with Mass Transfer | 182 | |
5-9 | Combined Forced and Free Convection Boundary | |
Layer Flows on a Nonisothermal Surface | 183 | |
5-10 | Numerical Integration of the Governing Equations | |
for Combined Forced and Free Convection | 186 | |
5-11 | Nonsimilar Combined Forced and Free Convection | |
Boundary Layers | 190 | |
Chapter 6 | The Compressible Boundary Layer | 195 |
6-1 | Introduction | 195 |
6-2 | Variation of Transport Properties | 195 |
6-3 | Analytical Solutions of the Compressible | |
Navier-Stokes Equations - Couette Flow | 199 | |
6-4 | Compressible Boundary Layer | 208 |
6-5 | Transformation of the Compressible | |
Boundary Layer Equations | 210 | |
6-6 | The Low Speed Compressible Boundary Layer | 223 |
6-7 | The Compressible Boundary Layer on a Flat Plate | 225 |
6-8 | The Similar Compressible Boundary Layer | |
with Unit Prandtl Number | 230 | |
6-9 | The Similar Hypersonic Compressible Boundary | |
Layer with Nonunit Prandtl Number | 232 | |
6-10 | Displacement and Momentum Thickness in a | |
Compressible Boundary Layer | 234 | |
6-11 | Numerical Integration of the Compressible | |
Boundary Layer Equations | 236 | |
6-12 | Results for the Low Speed Compressible | |
Boundary Layer | 237 | |
6-13 | Results for the Compressible Boundary Layer | |
with Unit Prandtl Number | 241 | |
6-14 | Results for the Similar Hypersonic Compressible | |
Boundary Layer with Nonunit Prandtl Numbers | 257 | |
6-15 | The Similar Compressible Boundary Layer | |
with Mass Transfer | 261 | |
6-16 | Results for the Similar Compressible Boundary Layer | |
with Mass Transfer | 262 | |
6-17 | Hypersonic Shock Wave-Boundary Layer Interaction | 270 |
6-18 | The Nonsimilar Compressible Boundary Layer | 276 |
References | 283 | |
Appendix A Runge-Kutta Integration Scheme | 289 | |
Appendix B Satisfaction of Asymptotic Boundary Conditions | 299 | |
Appendix C Numerical Results for the Boundary Layer Flows | 321 | |
Appendix D General Boundary Layer Program | 353 | |
Appendix E Problems | 381 | |
Index | 411 |
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