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Autodesk Simulation - Multiphysics

( Duration: 2 Days )

Program Overview

The Autodesk Simulation - Multiphysics training course will introduce you to performing computational fluid dynamics (CFD) analyses on 3-D models. All of the available load and constraint options for CFD analyses will be covered. You will learn how to evaluate the results of CFD analyses and create presentations of the results, including images, animations, and HTML reports.

COURSE AGENDA

Introduction

Overview

Installing and Running Autodesk Simulation
System Requirements
Autodesk Simulation Help
Background of FEA
What is Finite Element Analysis?
Fluid Flow Review
Equations Used in the Solution
Limitations of CFD
Basic FEA Concepts
The General Flow of an Analysis

Autodesk Simulation Multiphysicss Example

Ball Valve Example
Meshing the Model
Setting up the Model
Analyzing the Model
Reviewing the Results
Creating an Animation
Generating a Report

Basics of Fluid Flow Analysis

Fluid Flow Elements
Meshing Options
Fluid Generation
Tetrahedral and Boundary Layer Meshes
Example of Internal Fluid Generation and Boundary Layer Meshing
Loading Options
Prescribed Inlet/Outlets
Prescribed Velocity
Pressure/Traction
Load Curves
Convergence Controls for the “Mixed GLS” and “Penalty” Formulation Options
Output and Printout Intervals
Convergence Controls for the “Segregated” Formulation Option
Turbulence
Surface Prescribed Turbulence Conditions
Wall Roughness
Reviewing the Results

Results Evaluation and Presentation

Result Types
Reaction Forces
Velocity
Pressure
Vorticity
Vorticity Precision
Flow Rate
Stress
Presentation Options
3-D Visualization of 2-D Elements
Slice Planes
Particle Paths
Streamlines

Additional Loading Options

Using a Fan Surface
Fan Swirl Effects
Example of Fan Surfaces
Overview of Rotating Frames of Reference
Applying a Rotating Frame of Reference
Number of Rotating Frames of Reference
Example of a Rotating Frame of Reference

Multiphysics

Forced Convection (Uncoupled Fluid Flow and Heat Transfer)
Natural Convection (Couple Fluid Flow and Thermal)
Additional Program Installation Requirements
Fluid Structural Interaction (FSI)
Thermal Stress
Joule Heating
Result Options
Pipe Tee Example – Uncoupled Fluid/Thermal/Stress
Fluid Part Creation and Meshing
Setting up and Analyzing the Fluid Flow Model
Reviewing the Fluid Flow Results
Setting up and Analyzing the Thermal Model
Reviewing the Thermal Results
Setting up and Analyzing the Structural Model
Reviewing the Structural Results
Heat Exchanger Example – Coupled Fluid/Thermal
Opening and Meshing of the Model
Setting up the Model
Analyzing the Model
Reviewing the Results

Self Study: Formulation Options, Porous Media, and Transient Mass Transfer

Fluid Flow Formulation Options
Mixed GLS Formulation
Segregated Formulation
Penalty Formulation
Porous Media
Example of Flow through Porous Media
Using Porous Media in a Steady or Unsteady Fluid Flow Analysis
Example of Using Porous Media in a Steady Fluid Flow Analysis
Self Study Exercise
Flow through Porous Media with Gravity
2D Elements
Transient Mass Transfer Overview
Meshing Requirements
Defining Species
Loading Options
Part-Based Loads
Surface Based Loads
Nodal Loads
Analysis Parameters
Result Types
Species Concentration
Mass Flux
Mass Rate of Face

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