A structured HyperWorks learning path covering FEM fundamentals, HyperMesh preprocessing, 1D, 2D and 3D meshing, OptiStruct analysis setup, thermal analysis, nonlinear analysis, vibration, fatigue, composite, buckling and industrial simulation workflows.
This page gives students a clear and compact view of what is covered inside ELEATION’s HyperWorks Basic to Professional course. The course starts with FEM and CAE fundamentals, then moves into HyperMesh geometry preparation, 1D, 2D and 3D meshing, OptiStruct analysis setup and multiple industrial CAE workflows used in simulation projects.
Click on any topic below to expand and view the detailed content covered in that section.
Foundation module covering design validation methods, finite element concepts and the engineering logic behind CAE simulation.
Line-based geometry creation, editing and 1D element preparation for beam, bar, rod and roll cage type simulation models.
Surface preparation, midsurface creation, shell meshing and quality control workflows for professional 2D CAE models.
Solid geometry repair, solid meshing, tetra, penta, hexa and solid map workflows for 3D simulation models.
OptiStruct based structural validation workflow for components under linear static loading conditions.
Analysis workflow for understanding structural stress generated due to temperature loading.
Heat transfer workflow where the temperature field remains constant with respect to time.
Coupled workflow for understanding thermal loading and its effect on the simulation model.
Time-dependent heat transfer simulation where temperature changes with respect to time.
Simulation workflow for structures where normal fixed supports are not physically suitable.
Structural stability simulation to estimate buckling load factor and buckling mode shape.
Efficient simulation approach for rotationally symmetric components using axisymmetric assumptions.
Analysis workflow for structures made using composite materials.
Non-linear analysis workflows involving contact, gasket material behavior and quasi-static loading conditions.
Modal analysis workflow to calculate natural frequencies and mode shapes.
Frequency domain analysis workflow to understand structural response under dynamic excitation.
NVH-related simulation output used to understand vibration-related radiated power behavior.
Dynamic structural response workflow where loading changes with respect to time.
Random vibration workflow for components subjected to PSD type loading conditions.
Spectrum-based dynamic analysis for shock, seismic and vibration response studies.
Advanced vibration workflow used for understanding instability and brake system dynamic behavior.
Durability analysis workflows using stress-life and strain-life fatigue methods.
Pretensioned bolt simulation workflow for bolted connection analysis.
After completing this HyperWorks course content, students will understand the complete CAE workflow from geometry cleanup and meshing to analysis setup, solving and result interpretation.