|| What will I learn?

  • Develop a solid understanding of the principles and theory behind finite element analysis, including its applications and limitations.
  • Gain mastery of the ANSYS Workbench interface, including navigation, project setup, and management of simulation studies.
  • Learn techniques for importing CAD geometry, preparing models for analysis, and generating high-quality meshes using ANSYS meshing tools.
  • Understand the different types of analyses supported by ANSYS, including structural analysis, thermal analysis, fluid flow analysis, and multiphysics simulations.
  • Acquire skills in performing linear and nonlinear structural analyses, including static, dynamic, buckling, and transient response analyses.
  • Learn to conduct steady-state and transient thermal analyses to predict temperature distributions, thermal stresses, and heat transfer rates in components and systems.
  • Gain proficiency in simulating fluid flow phenomena, including laminar and turbulent flow, pressure drop calculations, and flow visualization.
  • Develop skills in customizing ANSYS workflows, creating user-defined functions, and automating repetitive tasks to enhance productivity and efficiency.

|| What will I learn?

  • Develop a solid understanding of the principles and theory behind finite element analysis, including its applications and limitations.
  • Gain mastery of the ANSYS Workbench interface, including navigation, project setup, and management of simulation studies.
  • Learn techniques for importing CAD geometry, preparing models for analysis, and generating high-quality meshes using ANSYS meshing tools.
  • Understand the different types of analyses supported by ANSYS, including structural analysis, thermal analysis, fluid flow analysis, and multiphysics simulations.
  • Acquire skills in performing linear and nonlinear structural analyses, including static, dynamic, buckling, and transient response analyses.
  • Learn to conduct steady-state and transient thermal analyses to predict temperature distributions, thermal stresses, and heat transfer rates in components and systems.
  • Gain proficiency in simulating fluid flow phenomena, including laminar and turbulent flow, pressure drop calculations, and flow visualization.
  • Develop skills in customizing ANSYS workflows, creating user-defined functions, and automating repetitive tasks to enhance productivity and efficiency.

|| Requirements

  • Basic understanding of engineering principles and some familiarity with CAD software.
  • Prior experience with finite element analysis (FEA) or computational fluid dynamics (CFD) is beneficial but not required.

|| Requirements

  • Basic understanding of engineering principles and some familiarity with CAD software.
  • Prior experience with finite element analysis (FEA) or computational fluid dynamics (CFD) is beneficial but not required.

    • Introduction to Ansys
    • Overview of Ansys software and its applications
    • Understanding the Ansys user interface and navigation
    • Introduction to finite element analysis (FEA) and computational fluid dynamics (CFD) concepts


    • Ansys Basics
    • Setting up Ansys workbench environment
    • Importing CAD models into Ansys
    • Understanding geometry editing and cleanup tools


    • Structural Analysis with Ansys
    • Preprocessing: Meshing techniques and best practices
    • Defining material properties and boundary conditions
    • Performing static and dynamic structural analyses


    • Thermal Analysis with Ansys
    • Introduction to thermal analysis concepts
    • Defining heat transfer boundary conditions
    • Performing steady-state and transient thermal analyses


    • Fluid Dynamics Analysis with Ansys Fluent
    • Introduction to fluid dynamics analysis
    • Preprocessing: Meshing techniques for fluid domains
    • Defining flow boundary conditions and solver settings
    • Performing laminar and turbulent flow simulations


    • Multiphysics Analysis
    • Introduction to multiphysics simulations
    • Performing fluid-structure interaction (FSI) analyses
    • Coupling structural and thermal analyses


    • Optimization and Design Exploration
    • Introduction to design optimization and exploration
    • Defining design variables, constraints, and objectives
    • Performing parametric studies and optimization iterations


    • Postprocessing and Results Interpretation
    • Interpreting and visualizing analysis results
    • Generating contour plots, animations, and reports
    • Understanding stress, displacement, temperature, and flow velocity distributions


    • Advanced Topics in Ansys
    • Introduction to advanced analysis capabilities (e.g., nonlinear, transient dynamic, fatigue)
    • Exploring specialized modules (e.g., Ansys Workbench, Ansys Mechanical, Ansys Fluent)
    • Understanding best practices for complex simulations


    • Case Studies and Real-World Applications
    • Analyzing real-world engineering problems and case studies
    • Hands-on exercises and projects to reinforce concepts
    • Presentations and discussions on industry applications and standards

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