A structured ANSYS learning path covering FEM fundamentals, meshing, structural analysis, thermal analysis, vibration, CFD, fatigue, explicit dynamics, contact, composite analysis and topology optimization through classwork, homework and industrial problem statements.
This page gives students a clear and compact view of what is covered inside ELEATION’s ANSYS Basic to Professional course. The course starts with FEM and CAE fundamentals, then moves into geometry preparation, meshing and different industrial analysis workflows used in simulation projects.
Click on any topic below to expand and view the detailed content covered in that section.
Foundation module covering the engineering logic behind simulation, design validation and finite element analysis.
Line-based modeling and meshing workflows for truss structures, roll cage structures and beam-type simulation models.
Surface-based modeling and shell meshing workflows for plates, thin components and sheet metal type structures.
Solid geometry preparation and 3D meshing techniques required for professional simulation models.
Validation of components under static loading conditions with stress, deformation and safety result interpretation.
Time-dependent structural analysis where load magnitude, load location or vibration effect changes with respect to time.
Efficient simulation method for rotationally symmetric components using axisymmetric assumptions.
Simulation workflow for free-body or unconstrained structures where traditional fixed supports are not suitable.
Structural stability analysis to calculate buckling load factor and understand buckling mode shapes.
Calculation of natural frequencies and mode shapes to understand vibration behavior of structures.
Frequency response analysis of structures under sinusoidal loading conditions.
Simulation of components subjected to random vibration loading conditions.
Spectrum-based dynamic analysis used for shock, seismic and dynamic loading cases.
Heat transfer simulation where temperature distribution remains constant with respect to time.
Time-dependent heat transfer simulation where temperature changes with time and location.
Durability analysis to estimate fatigue life and damage due to repeated loading.
High-speed dynamic event simulation for impact, crash and short-duration loading events.
Flow simulation workflows for internal flow, external flow and mixed flow problems.
Understanding non-linear behavior caused by contact, material or large deformation effects.
Introductory workflow for simulation of components made using composite materials.
Assembly-level simulation where two or more parts interact using contact definitions.
Introductory exposure to equivalent radiated power calculation for vibration-related output.
Simulation-driven design improvement by reducing material while maintaining structural performance.
After completing this ANSYS course content, students will understand the complete CAE workflow from problem understanding to mesh preparation, solver setup and result interpretation.