Studying inertia effects in open channel flow using Saint-Venant equations

Engineering

• Simulation Result 100%
• Transients 100%
• One Dimensional 100%
• Step Size α 100%
• Momentum Equation 100%
• Benchmark Problem 100%
• Application Field 100%
• Algebraic Equation 100%
• Open Channel Flow 100%
• Inertia Effect 100%
• Boundary Condition 100%
• Method of Characteristics 100%

Keyphrases

• Saint-Venant Equations 100%
• Open Channel Flow 100%
• Inertia Effect 100%
• Dynamic Wave 100%
• Kinematic Wave 60%
• Wave Diffusion 40%
• Diffusion Wave 40%
• Inertia 20%
• Physical Characteristics 20%
• Central Taiwan 20%
• Pressure-induced 20%
• Governing Equation 20%
• Momentum Equation 20%
• Algebraic Equation 20%
• Benchmark Problems 20%
• Approximation Results 20%
• NavierStokes Equations 20%
• Streamflow 20%
• Hydrograph 20%
• Wave Dynamics 20%
• Wave Approach 20%
• Computer Model 20%
• Fully Dynamic 20%
• Characteristics Method 20%
• Cross-sectional Geometry 20%
• Diffusion Dynamics 20%
• Wave Flow 20%
• Downstream Boundary Condition 20%
• Large Time Steps 20%
• Friction-induced 20%
• Non-prismatic 20%
• Acceleration Term 20%
• Kinematic Wave Approximation 20%
• Mass Continuity 20%
• Momentum Loss 20%

Mathematics

• Hydrograph 100%
• Algebraic Equation 100%
• Time Step Size 100%
• Momentum Equation 100%
• Channel Flow 100%
• Stream Flow 100%
• Boundary Condition 100%