An Introduction to Computational Fluid Dynamics (CFD)

🌫️ An Introduction to Computational Fluid Dynamics (CFD) using the Finite Volume Method 🎓 También conocido como: Finite Volume CFD Method. Fortran. Python.

Course Headline:

Master the Fundamentals of Computational Fluid Dynamics with Practical Application in Fortran and Python!

Course Description:

📘 Overview: This comprehensive online course is designed for enthusiasts and professionals looking to delve into the world of computational fluid dynamics (CFD). With a focus on the finite volume method, this course will guide you through the intricacies of incompressible flows on 2D Cartesian grids. You'll gain hands-on experience by writing your own CFD codes and applying them to real-world scenarios.

🔍 Key Topics Covered:

• Discretization Procedure: Learn how to convert partial differential equations into a finite volume formulation.
• Interpolation Techniques: Understand the methods used for interpolating variables from one cell to another.
• Boundary Conditions: Master setting up appropriate boundary conditions to ensure your simulation accurately represents physical phenomena.
• Flow Visualization with ParaView: Discover how to visualize and analyze CFD results using the powerful data analysis and visualization tool, ParaView.
• Understanding CFD Errors and Uncertainty: Dive into the factors that can introduce errors in your simulation and learn strategies for minimizing their impact.

🛠️ Course Projects: You will engage in three main coding projects:

1. Pure Diffusion Problem: Implement a code to solve a simple diffusion problem, laying the groundwork for understanding transport phenomena.
2. Pure Convection Problem: Enhance your skills by writing a code that captures pure convection, focusing on the advection of scalar quantities.
3. Navier-Stokes Equations with SIMPLE Algorithm: Tackle the most complex project by solving the Navier-Stokes equations using the SIMPL(E) pressure-velocity coupling procedure. This will prepare you for tackling more advanced CFD problems like the "driven cavity" and flow development in a channel.

📋 Resources Provided: All three codes, written in both Fortran and Python, are available for download. These serve as models for students to study and assist with debugging or understanding the solution procedure.

🚀 Learning Outcomes: Upon successful completion of this course, you will:

• Have a solid understanding of the finite volume method for CFD.
• Be equipped to effectively utilize commercial CFD software packages.
• Possess the necessary background to explore more advanced CFD techniques.

🧠 Prerequisites: To maximize your learning experience, we recommend:

• A solid foundation in fluid dynamics from an undergraduate level course.
• Proficiency in using Fortran, Python, or a comparable scientific programming language.

Join us on this journey to unlock the potential of CFD and transform your understanding of fluid mechanics! 💧🚀

Why Take This Course?

✅ Expert Instructor: Learn from Robert Spall, an experienced professional with a deep understanding of CFD and the finite volume method. ✅ Hands-On Approach: Apply what you learn through practical coding projects that will solidify your understanding of CFD. ✅ Versatile Skills: Gain skills applicable to any field involving fluid dynamics, from aerospace engineering to environmental science. ✅ Community Support: Engage with fellow students and experts in the field, enhancing your learning experience and expanding your professional network.

📆 Enroll Now to Secure Your Spot in the World of Computational Fluid Dynamics! 🎉