Engineering Simulations

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About Course

In this hands-on Engineering Simulations course.

you’ll learn how to perform engineering simulations using a powerful tool from ANSYS, Inc. This is a problem-based course where you’ll learn by doing. The focus will be on understanding what’s under the blackbox so as to move beyond garbage-in, garbage-out. You’ll practice using a common solution approach to problems involving different physics: structural mechanics, fluid dynamics and heat transfer.

We’ll solve textbook examples to understand the fundamental principles of finite-element analysis and computational fluid dynamics. Then we’ll apply these principles to simulate real-world examples in the tool including a bolted rocket assembly and a wind turbine rotor. We’ll discuss current industry practices with a SpaceX engineer. By working through examples in a leading simulation tool that professionals use, you’ll learn to move beyond button pushing and start thinking like an expert.

This course teaches fundamental concepts and tool use in an integrated fashion using the power of online learning. All learners will have access to a free download of ANSYS Student.

Join us to discover why simulations have changed how engineering is done and how you can be a part of this revolution.

 

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What Will You Learn?

  • Big ideas in finite-element analysis and computational fluid dynamics
  • Fluid dynamics simulations using ANSYS Fluent™
  • Structural mechanics simulations using ANSYS Mechanical™
  • Mathematical models underlying simulations
  • Building simulations of real-world applications using ANSYS® software
  • Verification and validation of simulations including checking against hand calculations
  • How to approach engineering analysis and simulations like an expert

Course Content

Simulation

  • Introduction
    00:00
  • The Black Box
    00:00
  • What’s Under the Blackbox
    00:00
  • Preanalysis
    00:00
  • Verification and Validation
    00:00
  • Governing Equation Derivation
    00:00
  • Mathematical Model Summary
    00:00
  • Big Ideas in Finite Element Analysis FEA Introduction
    00:00
  • Discretization
    00:00
  • How to Find Nodal Temperatures
    00:00
  • How to Derive Algebraic Equations
    00:00
  • Weak Form Derivation
    00:00
  • Weak Form to Algebraic Equations Overview
    00:00
  • Natural Boundary Conditions
    00:00
  • Source Term
    00:00
  • Stiffness Matrix Coefficients
    00:00
  • Final Set of Algebraic Equations
    00:00
  • Essential Boundary Conditions
    00:00
  • Temperature Results
    00:00
  • Flux Results
    00:00
  • Reaction
    00:00
  • Error Reduction
    00:00
  • Mathematical Model
    00:00
  • Problem Overview
    00:00
  • Discretization
    00:00
  • How to Find Nodal Temperatures
    00:00
  • How to Reduce the Numerical Error
    00:00
  • Hand Calculations
    00:00
  • How to Derive Algebraic Equations
    00:00
  • Save Project
    00:00
  • Create Rectangle
    00:00
  • Create Mesh
    00:00
  • Effect on Numerical Solution Procedure
    00:00
  • Define Boundary Conditions
    00:00
  • Obtain the Numerical Solution
    00:00
  • Temperature Contours
    00:00
  • Heat Flux Vectors
    00:00
  • Probe Temperature
    00:00
  • Temperature Along a Line
    00:00
  • Verification Overview
    00:00
  • Check Energy Conservation
    00:00
  • Check Numerical Error
    00:00

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