Detailed Introduction to Ansys Workbench

Description

******************* Course Structure  ***************************

The course will take you on exciting journey of solving various engineering problem through FEA using ansys workbench.

Main theme of the course is to get you familiar with theoretical aspect of FEA and gradually moves towards more effective ways of solving problems. Along the with getting results from Ansys Workbench, more focus is given on verifying those results and corelating those results with physical situation. At the beginning of each module, theoretical aspect will be covered first and then we will solve problems using Ansys Workbench based on theory.

We will start with Theory of FEA , where you will get familiar with various ways in which you can find solution to given problem and the logic behind most of the CAE codes/tools/software's.

Below is the brief outline of the course and various modules involved in the course.

1. Theory of FEA/CAE

   • Objective of this module is to get you familiar with FEA/CAE.

   • Understanding problem solving techniques.

   • How FEA works.

   • Ansys Workbench user interface.

2. Material Creation though engineering data

   • Getting familiar with material creating in ansys workbench

   • Importing and exporting of materials.

3. Design Modeler

   • Objective of this module is to become proficient in CAD/Geometric modelling.

   • Extensive and in depth sessions are provided related to each option that Ansys Workbench has to offer.

4. Introduction to Meshing

   • Getting familiar with various options available in Ansys Workbench for meshing.

5. Linear Static Structural Analysis

   • Theory of static structural analysis.

   • Understanding loads and boundary conditions in CAE.

   • In depth look at each boundary condition with example.

   • Project : Allen Key Analysis

6. Modal Analysis

   • Theory of modal analysis and governing equation.

   • Examples on Gear, Plate, Prestress Wing.

   • Advanced topic of mode participation factor.

   • Project : Frame Structure modal analysis.

7. Buckling Analysis

   • Theory of buckling analysis.

   • Column Buckling with analytical correlation.

   • Examples on connecting rod and mobile tower.

8. Non Linear Structural Analysis

   • Theory of Non Linear Analysis.

   • Types of non linearities.

   • Controlling non linear analysis.

   • Problems involving non linearities.

9. Steady State Thermal Analysis

   • Theory of steady state thermal analysis.

   • CAE solutions and co-relation with formulae's.

   • Problems involving heating coil, bar.

10. Transient Thermal Analysis

    • Theory of transient thermal analysis.

    • Transient Thermal vs Steady State Thermal

    • Project : Intake Manifold

11. Dynamic Analysis

    • Types of structural analysis.

    • Types of dynamic analysis.

12. Explicit Analysis

    • Taylor Test/ Cylinder Impact

    • Parametric Study on cylinder impact

    • Pipe Impact Analysis

    • Solution accuracy validation : Energy Error

13. Design/Topology Optimization

    • Introduction to Design Optimization

    • Example : Bridge Optimization

    • Example : C-Clip

    • Example : L Plate

Last section will be placed for your doubts. I will update this session with answers to all of your doubt

******************* Course Updates  ***************************

1. Added new section on topology optimization.

2.Added new examples on topology optimization.

3.Added new video titled "Implicit vs Explicit".

Course Info