Unsteady Flow in Open Channels 1st Edition by Jurjen Battjes, Robert Jan Labeur – Ebook PDF Instant Download/Delivery: 9781316984215 ,1316984214
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ISBN 10: 1316984214
ISBN 13: 9781316984215
Author: Jurjen Battjes, Robert Jan Labeur
Unsteady Flow in Open Channels 1st Edition Table of contents:
1 Basic Equations for Long Waves
1.1 Approach
1.2 Schematization of the Cross Section
1.3 Mass Balance
1.4 Equations of Motion
1.4.1 Euler Equations
1.4.2 Flow Resistance
1.4.3 Momentum Balance
1.5 Summary of the Long-Wave Equations
Problems
2 Classification and Analysis of Long Waves
2.1 Types of Long Waves
2.1.1 Translatory Waves
2.1.2 Tsunamis
2.1.3 Seiches
2.1.4 Tides
2.1.5 Flood Waves in Rivers
2.2 A Condition for the Long-Wave Approximation
2.3 Estimation of Terms
2.3.1 Advective Acceleration Term
2.3.2 Resistance Term
2.4 Solution Methods
2.4.1 Complete Equations
2.4.2 Simplified Equations
Problems
3 Elementary Wave Equation
3.1 Simple Wave
3.1.1 Propagation
3.1.2 Balance Equations
Volume Balance
Momentum Balance
3.2 Elementary Wave Equation
3.2.1 Derivation
3.2.2 General Solution
3.2.3 Total Derivative
3.3 Relation between Discharge and Free-Surface Elevation in a Progressive Wave
3.4 Solution for Arbitrary Initial Conditions
3.5 Boundary Conditions
3.6 Periodic Progressive and Standing Waves
3.6.1 Infinitely Long Canal
3.6.2 Semi-Infinitely Long Canal with a Closed End
3.6.3 Closed Basin
3.6.4 Semi-Closed Basin Connected to a Reservoir or Tideless Sea
3.6.5 Semi-Closed Basin Connected to a Tidal Sea
Problems
4 Translatory Waves
4.1 Introduction
4.2 Low Translatory Waves in Uniform Channels
4.3 Propagation in Non-Uniform Canals
4.3.1 Rapidly Varying Cross Section
4.3.2 Gradually Varying Cross Section
4.4 Damping of Translatory Waves
4.5 High Translatory Waves
4.5.1 Wave Deformation
4.5.2 Tidal Bores
4.5.3 Bore Propagation
4.6 Field Observations
4.6.1 Observations in the Twenthekanaal
Layout
Primary Wave
Propagation and Reflection
Damping
4.6.2 Observations in the Approach Canal to the Lanaye Lock
Problems
5 Method of Characteristics
5.1 Introduction
5.2 Mathematical Formulation
5.3 Principle of Application
5.3.1 General Procedure
5.3.2 Characteristics
5.3.3 Boundary Conditions
Subcritical Flow
Supercritical Flow
Transcritical Flow
5.3.4 External Forces
5.4 Graphical Solution Procedure
5.4.1 Initial Value Problem
5.4.2 Inclusion of the Boundary Conditions
Boundary Types
Absorbing Boundaries
5.5 Simple Wave
5.5.1 General Solution
5.5.2 Expansion Wave
5.5.3 Compression Wave
Problems
6 Tidal Basins
6.1 Introduction
6.2 Mathematical Formulation
6.2.1 Motion in the Basin
6.2.2 Motion in the Channel
Rigid Column Approximation
Momentum Equation
6.2.3 Coupled System
6.3 Linearization of the Quadratic Resistance
6.4 System with Discrete Storage and Resistance
6.4.1 Governing Equation
6.4.2 Nonhomogeneous Solution
6.4.3 Explicit Solution
6.5 System with Discrete Storage, Resistance and Inertia
6.6 Solution through Complex Algebra
6.6.1 Complex Representation
6.6.2 Solution
Problems
7 Harmonic Wave Propagation
7.1 Introduction
7.2 Complex Representation of Damped Progressive Harmonic Waves
7.3 Formulation and General Solution
7.3.1 Formulation
7.3.2 General Solution
7.3.3 Solution of the Dispersion Equation
7.3.4 Solution for the Discharge
7.4 Unidirectional Propagation
7.4.1 Physical Interpretation
7.4.2 Propagation in Compound Channels
7.5 Bi-directional Wave Propagation
7.5.1 Relation between the Complex Amplitudes at the Ends of a Prismatic Section
7.5.2 Response Function of a Semi-Closed Prismatic Basin
7.6 Propagation in Non-Uniform Channels
7.6.1 Abrupt Channel Transition
7.6.2 Exponentially Varying Cross Section
Dispersion Equation
Unidirectional Wave Propagation
Morphological Equilibrium
7.7 Propagation in Networks
7.8 Nonlinear Effects
7.8.1 Tidal Wave Deformation
7.8.2 Mean Slope of the Free Surface
Problems
8 Flood Waves in Rivers
8.1 Introduction
8.2 Quasi-Steady Approximation
8.3 Quasi-Uniform Approximation
8.3.1 Formulation and General Solution
8.3.2 The High-Water Wave Speed
8.3.3 Kinematic Wave Behaviour
8.4 Influence of Variable Free-Surface Slope
8.4.1 Diffusion Model for Flood Waves
8.4.2 Elementary Solution
8.4.3 Observations
8.5 Discussion
Problems
9 Steady Flow
9.1 Rapidly Varying Flow
9.1.1 Scaling Analysis
9.1.2 Flow Patterns
Inflow Section
Minimal Cross Section
Outflow Section
9.1.3 Bernoulli Equation
9.1.4 Relations between Water Level and Discharge
Flow under a Gate
Broad-Crested Weir
Sharp-Crested Weir
9.1.5 Hydraulic Jump
9.2 Gradually Varying Flow
9.2.1 Governing Differential Equation
9.2.2 Integral Curves
9.2.3 Classification of Backwater Curves
9.2.4 Boundary Conditions
9.2.5 Explicit Representation
9.3 Uniform Flow
9.3.1 Equilibrium Relations
9.3.2 Resistance Relations
The Log Law
Chézy
Manning
Strickler
9.3.3 The Overall Resistance of a Channel
9.3.4 Applicability to Unsteady Flow
Problems
10 Transport Processes
10.1 Introduction
10.2 Generic Balance Equation
10.3 Molecular Diffusion
10.3.1 Fick’s Law of Diffusion
10.3.2 One-Dimensional Diffusion
Solution in an Infinite Domain
Solution in a Semi-Infinite Domain
Solution in a Finite Domain
10.3.3 The Random Walk Model
10.3.4 Two-Dimensional Diffusion
10.4 Advection and Molecular Diffusion
10.5 Turbulent Diffusion
10.5.1 Reynolds Averaging
10.5.2 Closure Hypothesis
10.6 Vertical Diffusion in Free-Surface Flows
10.6.1 Turbulence Diffusivity
10.6.2 Vertical Distribution of Horizontal Velocity
10.7 Horizontal Transport in Free-Surface Flows
10.7.1 Introduction
10.7.2 Two-Dimensional Horizontal Transport
Longitudinal Transport
Lateral Transport
Two-Dimensional Advection–Diffusion Equation
Case 1: Instantaneous Release at a Point
Case 2: Continuous Release at a Point
10.7.3 One-Dimensional Horizontal Transport
Case 3: Instantaneous Release in a Cross Section
Problems
11 Numerical Computation of Solutions
11.1 Introduction
11.2 Canal-Basin System
11.2.1 Model Equations
11.2.2 Discretization
11.2.3 Semi-implicit Method
Continuity Equation
Momentum Equation
11.2.4 Some Other Solution Methods
11.2.5 Properties of the Semi-implicit Method
Accuracy
Stability
Convergence
11.2.6 Python Implementation
Input and Initialization
Time Stepping
Output of Results
11.2.7 Verification
11.3 Semi-Implicit Method for Long Waves
11.3.1 Model Equations
11.3.2 Discretization
Spatial Domain
Time Domain
11.3.3 Semi-Implicit Method
Continuity Equation
Boundary Conditions
Momentum Equation
Inclusion of Momentum Advection
11.3.4 Some Other Solution Methods
Leapfrog Method
Implicit θ-Method
Preissmann Method
Finite Element Method
11.3.5 Properties of the Semi-Implicit Method
Accuracy and Consistency
Stability
Convergence
11.3.6 Python Implementation
Input and Initialization
Time Stepping
Output of Results
11.3.7 Verification
11.4 Characteristics-Based Methods
11.4.1 Characteristic Equations
11.4.2 Space–Time Discretization
11.4.3 Forward Time Backward Space Method
Interpolation
Boundary Conditions
Forcing Terms
Supercritical Flow
11.4.4 Some Other Characteristics-Based Methods
Higher-Order Interpolation
Implicit Interpolation
Flux Difference Splitting
11.4.5 Properties
Accuracy
Monotonicity and Stability
Convergence
11.4.6 Python Implementation
Initialization
Time Stepping
11.4.7 Verification
Problems
Appendix A Pressurized Flow in Closed Conduits
A.1 Introduction
A.2 Governing Equations
A.2.1 Constitutive Equations
Liquid Compressibility
Pipe Elasticity
A.2.2 Conservation of Mass
A.2.3 Conservation of Momentum
A.3 Pressure Waves in Pipelines
A.3.1 Characteristic Equations
A.3.2 Physical Behaviour
A.4 Closure Procedures
A.4.1 Abrupt Closure
A.4.2 Gradual Closure
A.4.3 Influence of Exit Losses and/or Wall Friction
A.4.4 Influence of Time Scales
Problems
Appendix B Summary of Formulas
One-Dimensional Shallow Water Equations
Elementary Wave Equation
Translatory Waves
Characteristic Method
Linearized Channel-Basin System
Harmonic Method
Flood Wave
Steady Flow
Transport
Pressurized Pipe Flow
References
Author Index
Subject Index
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