ME415 - Computational Fluid Dynamics

ME415 - Computational Fluid Dynamics


Kannan Iyer


Only one section



Course Difficulty

Quite easy to understand and follow the course contents if you are thorough with the weekly assignments and do it yourself.

Time Commitment Required

Weekly assignments require around 5-6 hours to solve.


Not that chill, professor can change the weightage if he feels that students haven’t performed well in the exams.

Attendence Policy

80 % required but not enforced.


Although Heat transfer is a pre-requisite, but our professor allowed us to take the course by doing the registration externally.

Topics Covered in the Course

Introduction to CFD, Governing equations, Principle of finite difference as approximation to derivatives, Classification of PDEs, Characteristics, Consistency and Stability. Solution of Steady and transient diffusion in Cartesian, polar and boundary fitted coordinate systems. Solution of steady and unsteady transport equation, Control Volume Methodology, Solution of transport equations, Solution of NS equations by Stream Function and Vorticity method, MAC formulation, SIMPLE and its derivatives for solving NS equations, Artificial Compressibility method for solving NS equations. Solution Methodology for parabolic flows and Compressible flows

Mechanism of Instruction and Teaching Style

Teaching through slides - quite boring!

Assignments and projects in the Course

Initial assignments are very easy, but the difficulty level increases from easy to difficult. No Projects.


No quiz, Midsem and Endsem are both Moderate and Open notes.

Reference Material

  • Notes given by the Professor, S. Chapra and R. Canale, Numerical Methods for Engineers, Fifth Edition, McGraw Hill, 2005.
  • K. Hoffman, and S. Chiang, Computational Fluid Dynamics for Engineers- Vols. 1,2, Engineering Education System, Wichita, Kansas, 1993

Importance of Course

Very useful in TFE courses and computational courses.