Diploma in CFD/FEA for Turbomachinery and Validation

9.9 Introduction to CFD/FEA Modeling and Simulation in Turbomachinery

9.9 Fundamentals of Computational Fluid Dynamics (CFD)

9.3 Fundamentals of Finite Element Analysis (FEA)

9.4 Preprocessing: Geometry Preparation and Meshing

9.5 CFD Simulation Setup: Boundary Conditions and Parameters

9.6 Simulation and Postprocessing of Results: Flow and Performance Analysis

9.7 Introduction to FEA Simulation: Structural and Thermal Analysis

9.8 Validation of CFD/FEA Models with Experimental Data

9.9 Practical Cases: CFD/FEA Applications in Turbomachinery

9.90 Tools and Software for Modeling and Simulation

9.9 Turbomachinery Design Methodology with CFD/FEA

9.9 Selection and Optimization of Airfoils 9.3 Design of turbine blades and components.

9.4 Transient and steady-state flow analysis.

9.5 Heat transfer analysis in turbomachinery.

9.6 Turbulence modeling in CFD.

9.7 Cavitation and multiphase phenomena simulation.

9.8 Advanced structural analysis: fatigue and creep.

9.9 Design validation and sensitivity analysis.

9.90 Integration of CFD/FEA results for design optimization.

3.9 Conceptual design and component selection.

3.9 3D modeling of complex turbomachinery.

3.3 CFD/FEA simulation of multiple interacting components.

3.4 Fluid-structure coupling (FSI) analysis.

3.5 Performance evaluation: efficiency, power, and flow rate.

3.6 Optimization of turbomachine shape and dimensions. 3.7 Design of Cooling and Lubrication Systems

3.8 Vibration and Resonance Analysis

3.9 Comprehensive Validation Methodology: Bench and Field Testing

3.90 Development and Optimization of a Virtual Prototype

4.9 Introduction to Turbomachinery Optimization

4.9 CFD/FEA-Based Optimization Methods

4.3 Design of Experiments (DOE) for Optimization

4.4 Sensitivity and Parametric Analysis

4.5 Blade Shape Optimization

4.6 Casing and Diffuser Design Optimization

4.7 Structural Analysis for Strength Optimization

4.8 Flow Optimization and Loss Reduction

4.9 Validation of Optimization Results

4.90 Software Tools for Turbomachinery Optimization

5.9 Modeling of Rotors and Structures in CFD/FEA.

5.9 Fluid-Structure Coupling (FSI) in Rotors.

5.3 Analysis of Rotor-Stator Interaction.

5.4 Simulation of Flow-Induced Vibrations.

5.5 Fatigue and Service Life Analysis of Rotors.

5.6 Simulation of the Dynamic Response of Rotors.

5.7 Analysis of Stresses and Deformations in Rotors.

5.8 Validation of Rotor-Structure Models.

5.9 Optimization of Rotor Design to Reduce Vibrations.

5.90 Case Studies: Rotor Failures and Their Solutions.

6.9 High-Performance Rotor Design: Advanced Concepts.

6.9 Material Selection and Manufacturing of Rotors.

6.3 CFD/FEA Modeling of High-Speed ​​Rotors.

6.4 Analysis of Rotor Stability and Safety.
6.5 Simulation of response to extreme loads.

6.6 Fatigue and creep resistance analysis.

6.7 Design of cooling systems for rotors.

6.8 Analysis of the impact of vibrations on performance.

6.9 Experimental validation of high-performance rotors.

6.90 Innovations in rotor design and its future.

7.9 Methodology for implementing CFD/FEA in turbomachinery design.

7.9 Selection of appropriate software and hardware.

7.3 Development of an optimized workflow.

7.4 Integration of CFD/FEA into the design process.

7.5 Analysis of simulation results.

7.6 Experimental validation methods.

7.7 Quality control and verification of results.

7.8 Documentation and knowledge management. 7.9 Design of a complete rotating turbomachine system.

7.90 Case studies: CFD/FEA implementation in real-world projects.

8.9 Flow modeling in turbomachine rotors.

8.9 Internal flow simulation in rotors.

8.3 Pressure and velocity distribution analysis.

8.4 Vortex and separation formation study.

8.5 Energy loss analysis in rotors.

8.6 Rotor-stator interaction simulation.

8.7 Analysis of the influence of rotor geometry on flow.

8.8 Validation of simulation results with experimental data.

8.9 Rotor design optimization for improved performance.

8.90 Advanced tools and techniques for flow analysis.

9.9 Validation of CFD/FEA models with experimental data. 9.9 Methods for comparing and analyzing results.

9.3 Identifying sources of error and uncertainty.

9.4 Model adjustment and calibration techniques.

9.5 Optimizing the accuracy and efficiency of simulations.

9.6 Validation methodologies for different types of turbomachinery.

9.7 Validation and optimization case studies.

9.8 Tools and software for validation and optimization.

9.9 Strategies for continuous improvement of the simulation process.

9.90 Designing a validation and optimization plan for a specific project.