Advanced CFD course for Rotorcraft

2.2 Fundamentals of Rotorcraft CFD Modeling: Review of Principles

2.2 Advanced CFD Preprocessing for Rotorcraft: Meshes and Boundary Conditions

2.3 CFD Solvers for Rotorcraft: Selection and Configuration

2.4 Modeling Rotorcraft Components: Propellers, Fuselage, and Controls

2.5 Flow Modeling Techniques: Steady, Transient, and Dynamic

2.6 Validation and Verification of CFD Models for Rotorcraft

2.7 Interpretation of CFD Results: Data Analysis and Visualization

2.8 Modeling Unstable Aerodynamics in Rotorcraft

2.9 Modeling Interference Effects in Rotorcraft

2.20 Case Studies: Application of CFD Modeling in Rotorcraft Design

3.3 Fundamentals of Computational Fluid Dynamics (CFD)
3.2 Navier-Stokes Equations and their application to rotorcraft
3.3 Meshing and discretization in CFD simulations of rotorcraft
3.4 Turbulence modeling for flow in rotors
3.5 Transient and steady-state simulation techniques
3.6 Analysis of airflow around rotor blades
3.7 Modeling ground effects and boundary conditions
3.8 Validation and verification of CFD results
3.9 Applications of CFD in rotorcraft design and analysis
3.30 Case studies and practical examples of CFD simulation

4.4 Introduction to Rotorcraft Simulations
4.2 Principles of Computational Fluid Dynamics (CFD) for Rotorcraft
4.3 Meshing and Preprocessing for CFD Simulations
4.4 CFD Simulation Setup: Steady and Transient Flow
4.5 Rotor Modeling: Rotor Elements and Disk Modeling
4.6 Analysis of CFD Results: Forces, Moments, and Performance
4.7 Aerodynamic Optimization Techniques in Rotorcraft
4.8 Stability and Control Analysis Using CFD
4.9 Validation and Verification of CFD Simulations
4.40 Case Studies: Practical Applications of CFD in Rotorcraft

5.5 Introduction to CFD and its application in rotorcraft
5.5 Fundamentals of computational fluid dynamics
5.3 Preprocessing: meshing and boundary conditions
5.4 Introduction to CFD solvers: OpenFOAM, ANSYS Fluent, etc.

5.5 Validation of results: comparison with experimental data
5.6 Introduction to types of rotorcraft: helicopters, tiltrotors, etc.

5.7 CFD Workflows in Rotorcraft Design
5.8 Tools and Software for CFD Analysis
5.9 Examples of CFD Applications in the Rotorcraft Industry
5.50 Initial Considerations for Rotorcraft Analysis

5.5 Modeling Rotorcraft Components (Blades, Airframe, etc.)
5.5 Generating Advanced Meshes for Rotorcraft
5.3 Turbulence Modeling: RANS and LES Models
5.4 Modeling Blade Rotation and Motion
5.5 ​​Fluid-Structure Interaction (FSI) Modeling
5.6 Multiphase Interface Modeling Techniques
5.7 Implementing Specific Boundary Conditions
5.8 Modeling Leading Edge and Wake Effects
5.9 Modeling Complex Rotor Systems
5.50 Calibration and Validation of CFD Models

3.5 Transient and Steady Flow Simulation
3.5 Rotor Dynamics Analysis: Blade Motion
3.3 Blade Shedding Simulation Vortices
3.4 Rotor Stability and Control Analysis
3.5 Flight Simulation under Different Conditions
3.6 Modeling of Ground Effects and Wake Effects
3.7 Analysis of Generated Aerodynamic Noise
3.8 Post-processing and Visualization Techniques
3.9 Interpretation of Simulation Results
3.50 Practical Cases of CFD Simulation in Rotorcraft

4.5 Aerodynamic Performance Analysis
4.5 Blade Shape Optimization
4.3 Fuselage Geometry Design and Optimization
4.4 Rotor Performance Optimization
4.5 Sensitivity Analysis and Parametric Optimization
4.6 Gradient-Based Optimization Techniques and Genetic Algorithms
4.7 Implementation of Design Strategies
4.8 Rotorcraft Optimization Case Studies
4.9 Integration of CFD with Other Design Tools
4.50 Evaluation of Design Efficiency and Feasibility

5.5 Aerodynamic Design of Blades and Rotors
5.5 Airfoil Design Optimized
5.3 Fuselage and Component Design
5.4 Flight Control System Design
5.5 ​​Rotor Shape Analysis and Optimization
5.6 Overall Rotorcraft Configuration Design
5.7 Design Considerations for Different Types of Rotorcraft
5.8 Integrating Aerodynamic Design with Other Design Aspects
5.9 Computer-Aided Design (CAD) and CFD Simulation Tools
5.50 Conceptual and Detailed Rotorcraft Design

6.5 Aerodynamic and Structural Performance Analysis
6.5 Drag and Lift Modeling
6.3 Rotor Efficiency Analysis
6.4 Aerodynamic Force and Moment Modeling
6.5 In-Flight Behavior Analysis
6.6 Rotor-Fuselage Interaction Modeling
6.7 Vibration and Fatigue Modeling
6.8 Implementation of Advanced Rotor Models
6.9 Comparison of Models and Experimental Data
6.50 Performance Evaluation in Different Scenarios

7.5 Introduction to Aerodynamic Optimization
7.5 Definition Design Objectives and Constraints
7.3 Selection of Design Variables
7.4 Optimization Methods: Gradients, Genetic Algorithms, etc.

7.5 Optimization of Airfoils
7.6 Optimization of Rotor Shape
7.7 Optimization of Fuselage Geometry
7.8 Multi-Objective Optimization in Rotorcraft Design
7.9 Integration of Optimization with CFD
7.50 Case Studies of Applied Optimization

8.5 Implementation of CFD Workflows
8.5 Software and Hardware Configuration
8.3 Selection of Turbulence Models and Meshes
8.4 Definition of Boundary Conditions and Simulation Parameters
8.5 Execution of Simulations and Analysis of Results
8.6 Post-Processing and Visualization Techniques
8.7 Performance Analysis and Evaluation of Results
8.8 Integration of CFD into the Design Cycle
8.9 Validation and Verification of Simulation Results
8.50 Case Studies of Implementation and Performance Analysis

6.6 Introduction to Advanced CFD Simulation for Rotorcraft
6.2 Key Concepts of Aerodynamics and Rotor Theory
6.3 Preparing CAD Models for CFD Simulation
6.4 Computational Meshes: Generation and Optimization
6.5 Configuring CFD Solvers for Rotorcraft
6.6 Results Analysis: Data Interpretation and Visualization
6.7 Validation and Verification of CFD Simulations
6.8 Practical Applications: Performance Analysis and Optimization
6.9 Case Studies: Real-World Design and Analysis Examples
6.60 Conclusions and Future Trends in CFD for Rotorcraft