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Creo Simulate

( Duration: 5 Days )

In Creo Simulate training course, you will learn to test, validate, and optimize product designs with the Creo Simulate module. Creo Simulate enables you to simulate structural and thermal loads on product designs. You will complete comprehensive, hands-on lab exercises that simulate realistic analysis and design optimization activities. You will also be introduced to advanced topics such as dynamic analyses, combined mechanical and thermal analyses, and Optimization Studies. After completing the course, you will be able to run engineering analyses and optimizations on your product design models.

By attending Creo Simulate workshop, delegates will learn to:

Understand the basic Simulate analysis process
Understand theory and simulate model topics
Explore results
Explore materials and material properties
Understand and use Simulate idealizations
Understand and use structural loads
Understand and use structural constraints
Run structural analyses
Understand convergence
Analyze assemblies with Simulate
Complete design and sensitivity studies
Run optimization studies
Understand the basics of Thermal analysis

Three months of Creo Parametric experience

The Creo Simulate class is ideal for:

Design engineers and mechanical designers. People in related roles will also benefit from taking this course.

COURSE AGENDA

Introduction to Creo Simulate

Simulate Analysis Functionality
Simulate Model Functionality
The Simulate Application
The Simulate User Interface Functionality
The Typical Simulation Process

Theoretical Foundations

The Finite Element Method
The h- and p-Versions of Finite Elements
The p-Method
Structural Mechanics – Stress Definitions and Hooke’s Law
Structural Mechanics – Strain Energy and Failure Theories

Simulation Models

Preparing a CAD Model
Using Inheritance and Remove Features
Managing Units
Understanding Model Types
Element Types Overview
Defining Simulate Model Geometry
Using Simulate Coordinate Systems
Using Surface Regions
Using Volume Regions
Controlling the Display of Simulation Entities
Using Measures

Materials and Material Properties

Understanding Material Properties
Defining Linear Elastic Materials
Understanding Failure Criteria
Creating Materials
Using 3-D Material Orientation
Using 2-D Material Orientation
Understanding Material Libraries

Structural Constraints

Defining Constraints
Understanding Displacement Constraints
Understanding Planar, Pin, and Ball Constraints
Understanding Mirror Symmetry Constraints
Understanding Cyclic Symmetry Constraints

Structural Loads

Understanding Structural Loads
Defining Global Loads
Defining Forces, Moments, and Pressure
Defining Loads as Functions

Meshing

Understanding Meshes
Understanding Mesh Options
Using AutoGEM Settings

Convergence

Convergence Methods
Error Norms
Comparing Convergence Methods
Selecting a Convergence Method
Understanding P-Level Plots
Recommendations for Memory Allocation

Structural Analysis

Fundamentals of a Linear Static Analysis
Defining a Linear Static Analysis
Understanding Modal Analysis
Defining Fatigue Studies and Properties
Setting Up the Simulate Solver
Starting, Stopping, and Monitoring the Simulate Solver
Understanding the Batch Process

Introduction to Results Evaluation

Ensuring Result Quality
The Simulate Result Directory Structure
Using the Postprocessor
Reviewing the Results Window
Inserting Results
Formatting Results
Performing Basic View Operations
Hiding and Unhiding Results
Editing, Copying, Deleting, Swapping, and Reordering Results Windows
Using Results Templates
Using Annotations
Creating Fringe Results
Creating Vector Results
Creating Graph Results
Creating a Graph Preference File
Creating Model Results
Using Cutting and Capping Surfaces
Using Results Mode Info and Query
Tying and Untying Results
Controlling Animations
Exporting Results

Refining the Design

Understanding Design Variables
Defining Design Studies
Understanding Standard Design Studies
Understanding Local Sensitivity Design Studies
Understanding Global Sensitivity Design Studies
Understanding Optimization Design Studies
Understanding Design Study Options

Basic Model Debugging

The Diagnostic Tool
Debugging a Model

Singularities

Understanding Singularities
Treating Singularities

Analyzing Assemblies

Using Interfaces
Reviewing Interfaces
Understanding Connections
Using End Welds
Using Perimeter Welds
Using Spot Welds
Using Fasteners

Shells

Understanding Shells
Using Shells on Quilts or Volume Surfaces
Using Shell Pairs for Midsurface Models
Using Connection Tools to Join Shell Midsurface Assemblies

Idealizations

Creating Discrete Masses
Creating Rigid Links
Creating Weighted Links
Creating Springs
Defining a Beam
Understanding Beam Results

Thermal Analysis

Understanding Thermal Analysis
Creating Heat Loads
Creating Prescribed Temperature Boundary Conditions
Applying Traveling Heat Loads
Applying Temperature Loads to a Simulate Structure Model

Advanced Analysis

Understanding Static Analysis with Prestress
Understanding Modal Analysis with Prestress
Understanding Dynamic Analysis
Understanding Linear Buckling Analysis
Understanding Nonlinear Stability Analysis: Snap-through
Understanding Contact Analysis
Understanding 2-D Plane Stress and Strain

Encarta Labs Advantage

One Stop Corporate Training Solution Providers for over 6,000 various courses on a variety of subjects
All courses are delivered by Industry Veterans
Get jumpstarted from newbie to production ready in a matter of few days

Trained more than 50,000 Corporate executives across the Globe
All our trainings are conducted in workshop mode with more focus on hands-on sessions

View our other course offerings by visiting https://www.encartalabs.com/course-catalogue-all.php

Contact us for delivering this course as a public/open-house workshop/online training for a group of 10+ candidates.

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