Altair HyperWork - Modelling - Meshing - Run Solver File

Name: Altair HyperWork - Modelling - Meshing - Run Solver File
Rating: 3.8 (49 reviews)

learn with us HyperWorks is an analysis and Optimization Solution

Created bySwaylen CAD I CAM I CAE Expert

Last updated 7/2019

English

English [Auto],

What you'll learn

FEM Theory
Meshing of 1d 2d 3d
Create and set-up Finite element models for analysis
Improve knowledge of meshing
Topology, size, Shape Optimization
learner HyperWork tutorial
learner Hyperwork CFD

Course content

7 sections • 55 lectures • 9h 7m total length

Introduction5:03
How to decide element type7:50
Can we solve same problem using 1-D, 2-D and 3D element11:02
Assess 1d, 2d, and 3d element models for the same geometry, compare nodes, elements, and solver time, and apply adaptive meshing and symmetry to achieve convergence in CAE analysis.
How to do meshing in critical area12:17
3d Element16:41
Minimum element length using in time and crease calculation analysis12:03
Material and property Information3:26
Explore material and property information, including isotropic, orthotropic, and anisotropic classifications, with elastic modulus, Poisson's ratio, density, and yield and ultimate strength across metals, wood, concrete, and laminates.

2D Meshing topic cover in session3:33
how to open and save file In HyperMesh6:29
Open and save different type of extension and create working directory
Import an Opti-struct file to the current HyperMesh session
Working with panel6:41
Use the entity selector and extended entity selection menu to select and unselect node and element from the graphics area
Organizing a model9:05
Organize geometry into components, create and rename components, assign lines and surfaces to components, and delete empty components to manage meshing elements and constraints efficiently.
Importing and repairing CAD10:09
Delete Untrimmed surfaces
Close missing surface
Set the Cleanup tolerance
Equivalence free edges
Delete duplicate surfaces
Create a Mid-surface3:44
Create a mid-Surface
Visualize the mid surface by using shading options and transparency
Simplifying Geometry5:47
Mesh the clip, Review the mesh quality, and controlled the feature to be simplified
Remove surface file
Remove Edge fillets
Remove Pinholes
Refining topology to achieve a quality mesh4:26
Mesh the part to determine poor element quality
Suppress small edges
Split surface
Remove interior fixed point
Replace Closely Placed fixed points
Create final Mesh
Auto Meshing panel8:24
Learn how to mesh all the surface at once specifying different element size and types
Learn how to change the element density along surface edged
Learn how to check element quality and changing the mesh pattern by changing the mesh algorithm
Learn how to preview the mesh on all the unmeshed surface
Learn how to change the element type and node spacing(biasing) along surface edges
Learn how to remesh surface
Meshing without surfaces7:55
·You will learn the basic concept of surface less meshing and how to mesh a bracket
Create a Meshing in Curved surfaces4:49
Create a mesh based only on element size
Mesh a set of surfaces using the maximum deviation parameter
Reduce the maximum angle perimeter
Increase the maximum element size parameter
Checking and editing Mesh11:27
Identify shell element connectivity problems
Correct shell element connectivity problems
Review the model shell element to ensure connectivity problems were corrected
Re mesh the elements along the rib

Create and Edit solid geometry8:49
Perform Tetra Meshing21:01
apply tetra meshing to convert a hollow volume into a 3d mesh using hyper mesh, adjust mesh size, and verify element quality through collapse and minimum angle checks.
Creating a hex-penta mesh using surfaces part 110:21
Create a hex-penta mesh from surfaces in Altair HyperWork by converting surfaces to 3D hex elements, offsetting five layers, and exploring meshing options for solid models.
Creating a hex-penta mesh using surfaces part 214:11
Creating a hexahedral mesh using the solid map function6:13
Using the tetramesh process manager12:07

Linear static analysis of a plate with a hole Part 111:58
Linear static analysis of a plate with a hole part 26:23
Perform a linear static analysis of a plate with a hole, setting up the analysis, applying loads, and running the solver to obtain displacement and stress results.
Thermal stress analysis of a coffee pot lid8:52
Explore thermal stress analysis of a coffee pot lid via finite element analysis in Altair HyperWork, covering material definition, boundary conditions, thermal loading, solving, and post-processing of displacement results.
Normal modes analysis of a splash shield6:43
3D Inertia relief analysis using RADIOSS6:21
3D Buckling analysis using RADIOSS6:24
Connection of dissimilar meshes using CWELD element9:12
Analysis of a composite aircraft structure using PCOMPG9:57
Direct frequency response analysis of a flat plate20:43
Model frequency response analysis of a flat plate12:57
Acoustic analysis of a half car model15:40
Random response analysis of a flat plate5:37
Nonlinear gap analysis of an airplane wing rib10:26
Direct transient dynamic analysis of a bracket10:53
Set up and run a direct transient dynamic analysis of a bracket in Altair HyperWorks, defining constraints, mesh, top-surface loads, time steps, and displacement and frequency outputs.

Design concept for a structural C-clip28:51
design concept for a structural c-clip demonstrates meshing, material definition, property setup, forces and constraints, static analysis, and topology optimization to minimize displacement and material volume.
Design concept for a structural C-clip with minimum member size control6:13
Topology optimization for an automotive control arm15:59
Increasing natural frequencies of an automotive splash shield with ribs15:09
Learn to increase the natural frequency of an automotive splash shield by modeling with ribs, setting up optimization of rib thickness and geometry, and analyzing frequency responses and constraints.
Control arm topology optimization with draw direction constraints7:36
Sport weld reduction using CWELD and 1-D Topology optimization6:07
Explore designing with CWELD and 1-D topology optimization in Altair HyperWork by defining design variables and responses, setting volume constraints, and optimizing toward convergence.

Requirements

Basic CAD And 3d modelling
Install latest or old version Altair HyperWork software student Version and licence version

Description

Hyperworks is a complete CAE software made by Altair engineering. It consists all the modules of CAE i.e. modelling, meshing, solver. It is a complete package of finite element procedure. Pre-processing, Solving and Post-processing can be done using Hyperworks.

Altair HyperWorks provides the most comprehensive, open-architecture CAE solution in the industry including best-in-class modeling, analysis and optimizatio.

HyperWorks line of software, including:

OptiStruct - Structural Analysis Solver (linear and non-linear); solution for structural design and optimization
RADIOSS - Structural Analysis Solver (highly non-linear problems under dynamic loadings); an industry standard for automotive crash and impact analysis
MotionView - Solver-neutral Multi-body Pre-processor
MotionSolve - Multi-body Solver; an integrated solution to analyze and optimize multi-body system performance
HyperXtrude - Metal & Polymer Extrusion Solver; an advanced solver for manufacturing process simulations and validations
HyperForm - Metal Forming Solver
HyperMesh, HyperCrash, Simlab, HyperView, HyperGraph - CAE Pre & Post Processing[1]
HyperStudy - Design of Experiments and Multi-disciplinary Design Optimization
HyperMath - Mathematical Analysis Environment
AcuSolve - General-purpose Finite Element Based CFD Solver
FEKO - 3D Electromagnetic Solver

Who this course is for:

Computer aided design & engineering
learn practical application of FEA and CAE
Aerospace Engineering
Mechanical and Industrial Engineer
Learn Meshing and Analysis of Mechanical System
Automobile Engineers

Altair HyperWork - Modelling - Meshing - Run Solver File

What you'll learn

Explore related topics

Course content

Theory of FEA and CAE7 lectures • 1hr 8min

1D Meshing9 lectures • 1hr 42min

2D Meshing12 lectures • 1hr 22min

3D Meshing6 lectures • 1hr 13min

Analysis and Post Processing14 lectures • 2hr 22min

Topology Optimization6 lectures • 1hr 20min

Use 3D Models in practice1 lecture • 1min

Requirements

Description

Who this course is for: