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Drag & Lift Validation: Cylinder, Sphere, NACA 4412 || ANSYS
New
96 students

Drag & Lift Validation: Cylinder, Sphere, NACA 4412 || ANSYS

Compute drag and lift coefficients of simple shapes and NACA 4412 airfoil and validate with research
Last updated 8/2026
Arabic

What you'll learn

  • How to draw 2D/3D model using Design Modeler
  • How to create a valid and high quality mesh
  • learning different methods for meshing
  • Understanding the physical setup of ANSYS Fluent
  • How to set the boundary conditions
  • How to extract and view results and contours
  • How to validate you results

Course content

3 sections9 lectures1h 37m total length
  • Create Geometry9:42

    In this video, we will create our cylinder geometry and generate our domain

  • Generate Mesh8:55

    In this video, we will generate mesh and check mesh quality

  • Fluent Setup and Results13:23

    In this video, we will set up the boundary conditions in ANSYS Fluent and view results and contours

  • Quiz 1

Requirements

  • Fluid Mechanics Knowledge
  • CFD Knowledge
  • ANSYS "version higher than 19"
  • SolidWorks

Description

Master drag and lift coefficient calculation in ANSYS Fluent through a hands-on validation study — from simple bluff bodies to a real airfoil case.

This course walks you through a complete CFD validation workflow using ANSYS Fluent. You'll start with the fundamentals by simulating flow over a cylinder and a sphere, calculating their drag coefficients, and comparing your results against established reference data. This builds a solid foundation in setup, meshing, turbulence modeling, and results verification.

Once you've validated the basics, you'll move on to a more advanced case: the NACA 4412 airfoil. You'll set up the simulation, compute both drag and lift coefficients, and validate your results against a published research paper — giving you real experience in how CFD engineers verify their simulations against experimental or literature data.

What you'll learn:

  • Setting up 2D CFD simulations in ANSYS Fluent

  • Calculating drag coefficient (Cd) for cylinder and sphere geometries

  • Understanding Reynolds number effects and turbulence model selection

  • Configuring Reference Values correctly for accurate force coefficients

  • Computing drag and lift coefficients (Cd, Cl) for the NACA 4412 airfoil

  • Validating simulation results against published reference data

  • Building confidence in interpreting and verifying your own CFD results

Who this course is for:

  • Engineering students working on CFD-related coursework or graduation projects

  • Beginners in ANSYS Fluent who want a structured, validation-focused learning path

  • Anyone looking to understand how to benchmark CFD results against real data

Requirements:

  • Basic understanding of fluid mechanics

  • ANSYS Fluent installed (any recent version)

Who this course is for:

  • Mechanical Engineers
  • Aerospace Engineers
  • CFD Engineers
  • Mechanical Engineering Students
  • Aerospace Engineering Students
  • Researchers