Description
Computational Fluid Dynamics (CFD) Fundamentals: A Complete Beginner’s Guide
Requirements
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Basic understanding of Calculus
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Familiarity with Newton’s Laws of Motion
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Vector Calculus knowledge (optional)
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Basic Programming experience (optional)
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No prior experience with CFD software required
Course Description
Unlock the power of Computational Fluid Dynamics (CFD) — one of the most in-demand skills in modern engineering. This comprehensive introductory course is designed to help you master the core principles of CFD, build strong theoretical intuition, and gain practical hands-on experience with simplified models and Python-based solvers.
Whether you’re an engineering student or a professional looking to upgrade your skills, this course provides a solid foundation in CFD — from the mathematical fundamentals to real-world applications.
What You’ll Learn
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Taylor Series Applications – Learn how to use Taylor series to derive accurate approximations of derivatives.
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Discretization Techniques – Understand how to discretize differential equations and analyze the stability and accuracy of numerical schemes.
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Explicit vs. Implicit Methods – Explore the pros and cons of these fundamental solution approaches.
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Modified PDEs & Error Analysis – Identify and understand dissipative and dispersive numerical errors.
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Key Fluid Dynamics Concepts – Build clear intuition for terms like Substantial Derivative and Divergence.
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Navier–Stokes Equations (NS) – Derive and simplify the NS equations from first principles to fit different applications.
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Numerical Methods for CFD – Implement methods such as MacCormack’s scheme with artificial viscosity.
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Practical CFD Applications – Use Python-based models to simulate classic problems such as:
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Lid-driven cavity flow
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Shock tubes
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Shock-vortex interactions
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Solver Extensions – Learn how to modify and extend your CFD solvers for more complex scenarios.
Topics Not Covered
This course provides an extended introduction to CFD. Advanced topics like the following are intentionally excluded:
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Non-Cartesian coordinate transformations
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Reynolds-Averaged Navier–Stokes (RANS) and turbulence modeling
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Large Eddy Simulation (LES) and Detached Eddy Simulation (DES)
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Grid and mesh generation techniques
Who This Course Is For
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Undergraduate students studying mechanical, aerospace, or civil engineering
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Engineers and professionals seeking to expand their technical skillset and learn CFD fundamentals
Why Take This Course
By the end of this course, you’ll have a strong mathematical and conceptual understanding of CFD principles — enabling you to confidently approach more advanced simulations, research, or professional applications in fluid mechanics.
Please Note: Files will be included in this purchase only Full Course Video & Course Resources. You will get cloud storage download link with life time download access.






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