Solid Edge Course | Best IT & Professional Certification Training Institute

|| What will I learn?

  • Become proficient in using Solid Edge software, understanding its interface, tools, and functionalities for creating 2D drafts and 3D models.
  • Gain a solid understanding of fundamental design principles and best practices in CAD, including geometric dimensioning and tolerancing (GD&T), assembly design, and parametric modeling.
  • Learn how to create detailed 2D drawings, including orthographic projections, section views, dimensioning, and annotations.
  • Develop skills in creating 3D models of parts and assemblies, including creating sketches, extruding, revolving, sweeping, lofting, and other advanced modeling techniques.
  • Understand the principles of surface modeling and learn how to create complex surface geometries for aesthetic and functional purposes.
  • Learn how to create and manage assemblies of parts, including assembly constraints, motion simulations, and exploded views.
  • Gain an understanding of simulation and analysis tools within Solid Edge for testing the performance and behavior of your designs under various conditions.
  • Learn how to manage design data effectively using Solid Edge's built-in data management tools, and collaborate with team members through cloud-based platforms.
  • Explore techniques for rendering and visualizing your designs to create realistic presentations and marketing materials.

|| What will I learn?

  • Become proficient in using Solid Edge software, understanding its interface, tools, and functionalities for creating 2D drafts and 3D models.
  • Gain a solid understanding of fundamental design principles and best practices in CAD, including geometric dimensioning and tolerancing (GD&T), assembly design, and parametric modeling.
  • Learn how to create detailed 2D drawings, including orthographic projections, section views, dimensioning, and annotations.
  • Develop skills in creating 3D models of parts and assemblies, including creating sketches, extruding, revolving, sweeping, lofting, and other advanced modeling techniques.
  • Understand the principles of surface modeling and learn how to create complex surface geometries for aesthetic and functional purposes.
  • Learn how to create and manage assemblies of parts, including assembly constraints, motion simulations, and exploded views.
  • Gain an understanding of simulation and analysis tools within Solid Edge for testing the performance and behavior of your designs under various conditions.
  • Learn how to manage design data effectively using Solid Edge's built-in data management tools, and collaborate with team members through cloud-based platforms.
  • Explore techniques for rendering and visualizing your designs to create realistic presentations and marketing materials.

|| Requirements

  • Basic Computer Skills
  • Understanding of Engineering Principles
  • Technical Drawing Knowledge

|| Requirements

  • Basic Computer Skills
  • Understanding of Engineering Principles
  • Technical Drawing Knowledge

    • Introduction to Solid Edge
    • Overview of Solid Edge software
    • Understanding the user interface and navigation
    • Introduction to 2D drafting and 3D modeling concepts


    • Sketching Fundamentals
    • Creating and editing 2D sketches
    • Applying sketch constraints and dimensions
    • Understanding sketching best practices


    • Part Modeling Basics
    • Creating basic 3D features (extrude, revolve, sweep)
    • Understanding feature-based parametric modeling
    • Using the feature manager tree for feature management


    • Intermediate Part Modeling
    • Exploring advanced modeling techniques (fillets, chamfers, patterns)
    • Working with synchronous and ordered modeling workflows
    • Utilizing advanced features like blends, lofts, and ribs


    • Advanced Part Modeling
    • Mastering complex modeling tasks with surface modeling
    • Creating sheet metal parts and utilizing specialized features
    • Exploring assembly modeling techniques


    • Assembly Design
    • Inserting and positioning components within assemblies
    • Applying assembly constraints and relationships
    • Exploring assembly features and manipulation tools


    • Drawing and Detailing
    • Creating and annotating drawing views
    • Adding dimensions, annotations, and GD&T symbols
    • Generating bill of materials (BOM) and parts lists


    • Sheet Metal Design
    • Understanding sheet metal design principles and terminology
    • Creating sheet metal parts with bends, flanges, and forming tools
    • Unfolding and flattening sheet metal parts


    • Surface Modeling
    • Exploring advanced surface modeling techniques
    • Creating and editing surfaces using loft, sweep, and boundary features
    • Converting solid models to surfaces and vice versa


    • Parametric Modeling Techniques
    • Utilizing parameters and relations for design automation
    • Creating family tables and configurable components
    • Implementing design variations and options


    • Simulation and Analysis
    • Introduction to finite element analysis (FEA)
    • Analyzing stress, displacement, and factor of safety in parts and assemblies
    • Optimizing designs for performance and reliability


    • Collaboration and Data Management
    • Working with Product Data Management (PDM) systems
    • Collaborating with team members and stakeholders
    • Managing design revisions and version control


    • Customization and API Programming
    • Customizing the Solid Edge environment and user interface
    • Creating macros and automation scripts using Solid Edge API
    • Integrating Solid Edge with other CAD/CAM software and systems


    • Case Studies and Real-World Applications
    • Analyzing real-world design examples and case studies
    • Hands-on exercises and projects to reinforce concepts
    • Presentations and discussions on best practices and industry standards

    Introduction to Sheet Metal Design

    • Overview of sheet metal design principles and terminology
    • Understanding the advantages and applications of sheet metal parts
    • Introduction to the sheet metal design environment in Solid Edge


    • Basic Sheet Metal Features
    • Creating base flanges, edge flanges, and miter flanges
    • Adding bends, corners, and reliefs to sheet metal parts
    • Utilizing bend tables and parameters for design flexibility


    • Advanced Sheet Metal Features
    • Exploring advanced sheet metal features such as tabs, lances, and punches
    • Using the jog, bridge, and contour flange tools for complex designs
    • Incorporating embosses, ribs, and louvers into sheet metal parts


    • Sheet Metal Cutouts and Holes
    • Adding cuts, holes, and cutouts to sheet metal parts
    • Understanding different types of cuts (blind, counterbore, countersink)
    • Utilizing hole and cutout features for part assembly and fabrication


    • Sheet Metal Bends and Forming
    • Understanding sheet metal bending techniques and parameters
    • Creating bend tables and calculating bend allowances
    • Using the bend feature for creating bends with custom parameters


    • Sheet Metal Unfolding and Flattening
    • Unfolding and flattening sheet metal parts for manufacturing
    • Understanding flat pattern development and layout
    • Checking for interference and collision issues in unfolded parts


    • Sheet Metal Documentation
    • Creating technical drawings and documentation for sheet metal parts
    • Adding dimensions, annotations, and GD&T symbols to sheet metal drawings
    • Generating bill of materials (BOM) and parts lists for sheet metal assemblies


    • Sheet Metal Assembly Design
    • Inserting and positioning sheet metal components within assemblies
    • Applying assembly constraints and relationships to define motion
    • Exploring assembly features and manipulation tools for sheet metal assemblies


    • Sheet Metal Design Considerations
    • Understanding design considerations for manufacturability
    • Designing for minimum bend radius and material thickness
    • Avoiding interference and collision issues in sheet metal assemblies


    • Sheet Metal Simulation and Analysis
    • Introduction to finite element analysis (FEA) for sheet metal parts
    • Analyzing stress, displacement, and factor of safety in sheet metal designs
    • Optimizing sheet metal designs for structural integrity and performance


    • Case Studies and Real-World Applications
    • Analyzing real-world sheet metal design examples and case studies
    • Hands-on exercises and projects to reinforce concepts
    • Presentations and discussions on best practices and industry standards

    • Introduction to Surface Modeling
    • Overview of surface modeling principles and terminology
    • Understanding the advantages and applications of surface modeling
    • Introduction to the surface modeling environment in Solid Edge


    • Basic Surface Creation
    • Creating and editing basic surface geometry
    • Utilizing surface creation tools such as extrude, revolve, and sweep
    • Understanding surface properties and parameters


    • Advanced Surface Features
    • Exploring lofted and swept surface features
    • Using guide curves to control surface shape and curvature
    • Creating complex surface forms and transitions


    • Surface Editing and Modification
    • Editing and manipulating surface geometry
    • Applying surface trimming and extending tools
    • Utilizing surface merging and stitching techniques


    • Surface Analysis and Optimization
    • Analyzing surface curvature and continuity
    • Performing surface quality checks and analysis
    • Optimizing surface designs for manufacturability and performance


    • Surface Modeling Techniques
    • Exploring advanced surface modeling techniques
    • Creating surface blends, offsets, and fillets
    • Using surface knitting and stitching tools


    • Complex Surface Modeling
    • Designing organic and freeform surface shapes
    • Using spline-based surface modeling techniques
    • Applying curvature control and continuity constraints


    • Surface Modeling for Aesthetic Design
    • Creating stylish and ergonomic surface designs
    • Incorporating surface textures, patterns, and logos
    • Understanding surface finish requirements and specifications


    • Surface Modeling for Mold Design
    • Design considerations for moldable surface geometry
    • Creating draft angles and split lines for mold design
    • Generating core and cavity surfaces for molds


    • Surface Modeling for Analysis and Simulation
    • Performing finite element analysis (FEA) on surface models
    • Analyzing stress, displacement, and factor of safety
    • Optimizing surface designs for structural integrity and performance


    • Surface Modeling Documentation
    • Creating technical drawings and documentation for surface models
    • Adding dimensions, annotations, and GD&T symbols to surface drawings
    • Generating 3D PDFs and other interactive documentation


    • Case Studies and Real-World Applications
    • Analyzing real-world surface modeling examples and case studies
    • Hands-on exercises and projects to reinforce concepts
    • Presentations and discussions on best practices and industry standards

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