Proe Tutorials

Objectives of Module 01 Orienting Design Models Selecting and Manipulating Components Creating Holes Creating Rounds and Chamfers Creating Ribs and Shells

Pro/ENGINEER Wildfire Update Training • • • • • • • • •

Opening and Orienting Design Models Modifying Design Models Creating Direct Features Creating Sketch-based Features Creating Datum Features Editing Geometry Managing Design Models Creating and Modifying Assemblies Creating and Modifying Drawings

Fast Track to Pro/ENGINEER Wildfire • • • • • • • • • • • • • •

Creating New Design Models Editing Design Models Creating Reference Geometry Creating Direct Features Capturing Sketched Design Intent Creating Sketch-based Features Duplicating Design Model Features Working with Design Variations Assembling and Managing Components Creating Mechanism Connections in Assemblies Creating Drawings Resolving Regeneration Failures Analyzing Design Models Comprehensive Design Project

Advanced Modeling with Pro/ENGINEER Wildfire • • • • • • •

Creating Advanced Sketch-based Features Re-using Model Features Editing Geometry with Surfaces and Curves Analyzing and Optimizing Design Models Against Design Specifications Creating Animation Sequences Analyzing and Optimizing Motion in Design Models Collaborating with Other Designers

Designing Sheetmetal Products with Pro/ENGINEER Wildfire • • • • • • • • • •

Sheetmetal Part Construction Philosophy Sheetmetal Construction Features Setting up the Sheetmetal Design Environment Bend Tables, Start Parts, and Templates Documenting Bend Order Sequences with Bend Order Tables Generating Flat State Models for Manufacturing Sheetmetal Drawings Converting Solid Parts to Sheetmetal Parts Application of User-Defined Features in Sheetmetal Design Sheetmetal Information Tools

Advanced Assembly Management with Pro/ENGINEER Wildfire • • • • • • • • •

Creating Design Frameworks Communicating Design Information Analyzing and Modifying Assembly Structures Managing Complex Parts Creating Simplified Representations Replacing and Substituting Components Modifying Simplified Representations Managing Complex Drawings Advanced Project Lab

Advance Surface Modeling with Pro/ENGINEER Wildfire • • • • • • • • • • •

Overview of Surface Modeling Techniques Planning a Surface Model Laying the Foundation: Curves and Points Using References to Create Surface Models Creating Parametric and Freeform Surface Models Manipulating Surfaces, Quilts, and Surface Models Creating Continuous Surface Models Evaluating Surfaces and Surface Models Using Surfaces to Redefine Solid Models Handling Complex Modeling Situations Thickening Surface Models

Creating Production Drawings with Pro/ENGINEER Wildfire • • • • • • • • • •

Creating Views of Parts, Assemblies, and Multiple Models on Drawings Creating Dimensions and Notes Applying Linear and Geometric Tolerances in Drawings Documenting Family Tables on Drawings and Creating Parts Catalogs Adding 2-D Drafting Symbols to Drawings Creating Drawing Templates and Standards Creating Drawing Tables and Bills of Material Controlling Display Options using Layers Creating and Editing Drawing Formats Managing Large Drawings

Creating Milling Sequences with Pro/ENGINEER Wildfire • • • • • • • • •

Overview of the Manufacturing Process Configuring the Manufacturing Environment Setting up Tools Setting up and Using Manufacturing Parameters Creating and Modifying Milling Sequences Creating and Modifying Hole-making Sequences Using Index Tables and Duplicating NC Sequences Correcting NC Sequence Failures Post-Processing CL Data

Structural and Thermal Simulation with Pro/ENGINEER Wildfire • • • • • • • • •

Simulating Mechanical and Thermal Loads in Machine Parts Introduction to the Mechanica Simulation Process Modeling Geometry, Material Properties, Loads, and Constraints Running Static, Modal, and Thermal Analyses Reviewing and Interpreting Results Assigning Design Variables Running Design Sensitivity and Optimization Analyses Simulating Contact, Buckling, and Pre-Stress Analyses Best Practices for Simulating Mechanical and Thermal Loads in Machine Parts

Creating 2-D Schematics with Routed Systems Designer • • • • • • • • •

Overview of the 2-D Schematic Design Process Setting up the Design Setting up the Catalog Library Creating Block Diagrams Creating Circuit Diagrams Creating Wiring Diagrams Creating Process and Instrumentation Diagrams (P& ID) Communicating Diagram Information to Pro/ENGINEER Wildfire Creating Reports and Other Information

Modeling 3-D Wire Harnesses with Pro/ENGINEER Wildfire • • • • • • •

Overview of the RSD 2-D Schematic Process Overview of the 3-D Electrical Cabling Design Process Composing Cabling Assemblies Creating 3-D Harness Designs Creating Flattened Harnesses for Manufacturing Composing Drawings Creating Harness Drawings

Modeling 3-D Piping Designs with Pro/ENGINEER Wildfire •

Overview of the RSD 2-D Schematic Process

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Overview of the 3-D Piping Design Process Composing 3-D Piping Creating Specification Driven Industrial 3-D Piping Designs Creating Non-Specification Driven Mechanical 3-D Piping Designs Composing Drawings Creating Piping Drawings Generating Isometric Information (ISOGEN)

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Pro/ENGINEER Wildfire 3.0 Core Concepts

• Solid Modeling • Feature Based • Parametric • Parent / Child Relationships • Associative • Model Centric

Solid Modeling

Pro/ENGINEER Wildfire 3.0 allows you to easily create 3D solid models, enabling you to visualize parts and assemblies with a realistic appearance. Based on material properties such as density, these models have mass, volume, surface area and other physical properties such as a center of gravity.

Feature Based

Pro/ENGINEER Wildfire 3.0 models are constructed using a series of features. Each feature builds upon the previous feature, creating the model one feature at a time. Individually each feature can be simple, but collectively can form complex parts and assemblies.

Parametric

Pro/ENGINEER Wildfire 3.0 models are driven using dimension values. If a dimension of a feature is changed, that solid feature will update. This change will then automatically propagate through the remaining features in the model, updating the entire part.

Parent/Child Relationships

Parent/Child relationships provide a powerful way to capture your "design intent" into a model. Parent/Child relationships are naturally created between features during the modeling process. When creating a feature, existing features that are referenced become parents to the new feature. Also, if the parent features are updated, the child features will automatically update accordingly

Associative & Model Centric

If a part model is changed in Pro/E, any assemblies or drawings that reference that model will automatically update. This behavior is known as Associativity and also works in reverse- if a model dimension in a drawing is updated, the part model and the assembly it is used in will update.

Right Tools Prompt Message Window

Command Description

Extrude Tool