Computational Fluid Dynamics (CFD) has become an essential analysis technique across various industries in recent years. CFD provides a powerful method to simulate and solve complex flow problems and thermal interactions that are difficult to analyze using traditional approaches. Thanks to technological advances in both software and hardware, we can now perform advanced simulations that were out of reach just a few years ago. With CFD, you gain the tools to acquire detailed insights into flow behavior and thermal processes, which are essential for designing and optimizing modern systems.
Why this course?
From the fundamentals of fluid dynamics to the basic principles of CFD and the validation & verification of CFD results—maximize the benefits of using CFD.
This course offers an in-depth, practical, and structured understanding of the key technical aspects of CFD simulations, which are the foundation for robust CFD solutions in a wide range of application areas.
The course is divided into two parts:
- The first part covers the fundamentals of fluid dynamics and serves as a refresher on the physical aspects of fluid mechanics.
- The second part covers the basic principles of Computational Fluid Dynamics and serves as an introduction for those starting with CFD and as a refresher for experienced users.
Who is this course for?
This course is intended for:
- Engineers and designers new to CFD simulation who want to gain a thorough foundation.
- Engineers and designers looking to refresh their CFD knowledge and stay up-to-date with the latest techniques.
- Technical managers who work with CFD simulation engineers and want to gain a better understanding of the processes and challenges within CFD.
Whether you are just starting out or looking to expand your existing knowledge, this course offers valuable insights and practical skills for anyone closely involved in CFD.
What will you learn in this course?
- A refresher on the fundamental principles of fluid dynamics.
- The basic principles of Computational Fluid Dynamics.
- Finite Difference vs. Finite Volume vs. Finite Elements.
- The differences between various differentiation and meshing schemes.
- Pressure vs. density-based solvers.
- Implicit vs. explicit solutions.
- Modeling turbulence and heat transfer.
- How to correctly model boundary conditions.
- The various errors and uncertainties in a CFD analysis and how to quantify and reduce them.
Benefits of the course
- Software-independent
- You will learn the fundamentals and basic techniques of CFD, independent of the type of commercial software you use.
- Accelerated learning and accurate results
- Reduce the time needed to master the CFD method. You will learn how to perform complex analyses faster and with greater precision, resulting in better design decisions and a more efficient design process.
- Quick return on investment
- The investment in this course quickly pays off. You will learn how to maximize the potential of your software and hardware investments, minimizing the costs associated with the learning process and maximizing productivity.
- Avoid costly mistakes
- Through our hands-on approach, with a large number of practical cases and a clear step-by-step plan, you will learn to avoid common pitfalls and errors in using CFD. This not only saves you time and resources but also prevents potentially costly design errors.
- Build confidence in your results
- Our course enhances your ability to correctly interpret and validate the results of CFD analyses. This builds confidence within your team in the reliability and accuracy of your design decisions, which is essential for successful projects.
Course content
PART I Fundamental concepts in fluid dynamics
- Definitions
- Properties of fluids
- Conservation laws
- Bernoulli’s equation
- Flow energy
- Pressure loss and recovery
- Streamlines
- Dimensional analysis
- Flow classification
- Reynolds number
- Laminar vs. turbulent flow
- Multiphase flow
- Forces acting on moving fluids
- Drag and lift
- Boundary layers
- Heat transfer
- Thermal boundary layer
- Convection
- Conduction
- Thermal radiation
PART II Computational Fluid Dynamics: Definition, role, and general formulation
- Definitions
- Overcoming CFD challenges and analysis strategy
- Use and role in industry
- Standard formulations
- Explicit vs. implicit formulation
- Discretization
- Finite Difference
- Finite Volume
- Finite Elements
- Governing principles
- Governing physical laws
- Assumptions
- Simplification and model equations
- Principles of the CFD process
- Geometry
- Meshing
- Boundary conditions
- Solving and monitoring the solution
- Visualizing results
- CFD Best Practices
PART III Turbulence
- Understanding turbulence
- The Kolmogorov hypothesis
- Energy cascade
- Sources of turbulence
- Modeling turbulence
- The Boussinesq approach
- Various RANS-based models
- Wall treatment
- y+
- Detached Eddy and hybrid models
PART IV Verification and validation of CFD calculations
- Background
- Mesh refinement studies
- Order of accuracy
- Richardson extrapolation
- Order of convergence
- Error quantification