Deform 3d Tutorial 〈Firefox〉
This guide outlines the standard workflow for setting up a metal forming simulation in DEFORM-3D, a finite element analysis (FEA) software used for manufacturing processes like forging, machining, and heat treatment. 1. Project Setup
Step 4: Deforming the Cube
- Step Control: Go to the Simulation Controls window.
- Stop Criteria: Define when the simulation ends. For our upsetting tutorial, set the stop criteria to "Stroke: X mm" (e.g., stop when the top die has moved down 50mm).
- Save Intervals: Tell the software how often to save the data. Saving every 10 steps allows you to create a smooth animation later.
Intermediate:
Die Definition: Usually, dies are defined as Rigid to save computation time, assuming they won't deform under load. Phase C: Meshing the Workpiece deform 3d tutorial
- Load Stroke: Plot forming force vs. displacement (critical for press selection).
- Effective Strain: Identify zones of severe deformation (potential cracking).
- Temperature Distribution: Locate adiabatic heating or die chill zones.
- Die Stress: Extract pressure distribution for subsequent die stress analysis.
- Set Object 2 type to "Rigid."
- Create a simple flat plate (Primitive -> Box) sized larger than the cylinder.
Batch Simulation: Use the "Queue" manager. Setup 5 different temperatures (700C, 800C, 900C) and run them overnight.
DXF vs STL: Always import dies as .STL in binary format. Never use .STEP for Deform 3D (it triangulates poorly). Use high resolution when exporting from SolidWorks/Inventor.
Symmetric Modeling: If your billet is round and the die is round, cut a 1/4 wedge (90 degrees). Set "Symmetry" boundary conditions. This runs 4x faster than a full model.
A typical project in DEFORM-3D follows these essential steps according to Scribd Training Guides: Pre-processing (Setup) This guide outlines the standard workflow for setting
