Altair HyperWork – Modelling – Meshing – Run Solver File

Course Curriculum

Chapter 1: Theory of FEA and CAE

Lecture 1: Introduction

Lecture 2: How to decide element type

Lecture 3: Can we solve same problem using 1-D, 2-D and 3D element

Lecture 4: How to do meshing in critical area

Lecture 5: 3d Element

Lecture 6: Minimum element length using in time and crease calculation analysis

Lecture 7: Material and property Information

Chapter 2: 1D Meshing

Lecture 1: 1D Meshing Introduction

Lecture 2: Create Hyper-beam

Lecture 3: Create HyperBeam I Solving the problem usinng 10 rod element

Lecture 4: Create bar element

Lecture 5: Concept of C-D-E-F point

Lecture 6: Bar element analysis

Lecture 7: Create bar element using rectangular cross section

Lecture 8: Different of dof (Degree of freedom)

Lecture 9: Roll cage Analysis

Chapter 3: 2D Meshing

Lecture 1: 2D Meshing topic cover in session

Lecture 2: how to open and save file In HyperMesh

Lecture 3: Working with panel

Lecture 4: Organizing a model

Lecture 5: Importing and repairing CAD

Lecture 6: Create a Mid-surface

Lecture 7: Simplifying Geometry

Lecture 8: Refining topology to achieve a quality mesh

Lecture 9: Auto Meshing panel

Lecture 10: Meshing without surfaces

Lecture 11: Create a Meshing in Curved surfaces

Lecture 12: Checking and editing Mesh

Chapter 4: 3D Meshing

Lecture 1: Create and Edit solid geometry

Lecture 2: Perform Tetra Meshing

Lecture 3: Creating a hex-penta mesh using surfaces part 1

Lecture 4: Creating a hex-penta mesh using surfaces part 2

Lecture 5: Creating a hexahedral mesh using the solid map function

Lecture 6: Using the tetramesh process manager

Chapter 5: Analysis and Post Processing

Lecture 1: Linear static analysis of a plate with a hole Part 1

Lecture 2: Linear static analysis of a plate with a hole part 2

Lecture 3: Thermal stress analysis of a coffee pot lid

Lecture 4: Normal modes analysis of a splash shield

Lecture 5: 3D Inertia relief analysis using RADIOSS

Lecture 6: 3D Buckling analysis using RADIOSS

Lecture 7: Connection of dissimilar meshes using CWELD element

Lecture 8: Analysis of a composite aircraft structure using PCOMPG

Lecture 9: Direct frequency response analysis of a flat plate

Lecture 10: Model frequency response analysis of a flat plate

Lecture 11: Acoustic analysis of a half car model

Lecture 12: Random response analysis of a flat plate

Lecture 13: Nonlinear gap analysis of an airplane wing rib

Lecture 14: Direct transient dynamic analysis of a bracket

Chapter 6: Topology Optimization

Lecture 1: Design concept for a structural C-clip

Lecture 2: Design concept for a structural C-clip with minimum member size control

Lecture 3: Topology optimization for an automotive control arm

Lecture 4: Increasing natural frequencies of an automotive splash shield with ribs

Lecture 5: Control arm topology optimization with draw direction constraints

Lecture 6: Sport weld reduction using CWELD and 1-D Topology optimization

Chapter 7: Use 3D Models in practice

Lecture 1: Practice models