Validating the design optimisation of ultrasonic flow meters using computational fluid dynamics and surrogate modelling

Keyphrases

• Design Optimization 100%
• Computational Fluid Dynamics Modeling 100%
• Surrogate Model 100%
• Pressure Drop 66%
• Measurement Uncertainty 66%
• Flowmeter 66%
• Flow Behavior 33%
• Laser Doppler Velocimetry 33%
• Turbulent Flow 33%
• Kriging 33%
• Computational Fluid Dynamics 33%
• Complex Flow 33%
• Novel Functions 33%
• Optimization Methods 33%
• Flow Problems 33%
• Computer Model 33%
• Similar Features 33%
• Three-dimensional Space 33%
• Response Surface 33%
• Multi-objective Optimization Problem 33%
• Sampling Strategy 33%
• Performance Gain 33%
• Uncertainty Reduction 33%
• Improved Design 33%
• Design Change 33%
• Geometrical Changes 33%
• Efficient Framework 33%
• Pareto Front 33%
• Internal Flow 33%
• Latin Hypercube Sampling 33%
• Gain Change 33%
• Bayesian Strategy 33%
• Wall-bounded Turbulent Flows 33%

Engineering

• Ultrasonics 100%
• Design Optimization 100%
• Computational Fluid Dynamics 100%
• Flowmeter 100%
• Pressure Drop 60%
• Turbulent Flow 40%
• Measurement Uncertainty 40%
• Optimization Method 20%
• Flow Behavior 20%
• Robust Design 20%
• Multiobjective Optimization Problem 20%
• Evaluate Design 20%
• Flow Problem 20%
• Response Surface 20%
• Internal Flow 20%
• Latin-Hypercube Sampling 20%
• Design Change 20%
• Pareto Front 20%

Chemical Engineering

• Velocity Measurement 100%