Toggle the tool visibility to see if the metal fully reaches the deepest corners and radiuses of the die cavities before the stroke ends.

Define the . You can stop the simulation based on Total Time, Total Step Number, or Primary Die Displacement (e.g., stop when the top die travels 30mm). 7. Step 6: Running the Simulation Solver

Open the menu to define how surfaces interact when they touch.

To import geometry:

DEFORM-3D is part of a family of products including DEFORM-2D (for axisymmetric and planar problems), DEFORM-HT (for heat treatment simulation), and FORMING EXPRESS (a simplified interface for beginners).

This is where you define the physical components of your simulation.

For each component (Workpiece, Punch, Die), you must assign specific roles: 3d Brochure - DEFORM 3D | PDF - Scribd

Once the setup is complete, you must and save the "Key File" before clicking "Run". After the simulation finishes, the Post-Processor allows you to visualize: DEFORM 3D Lab Simulation Guide | PDF - Scribd

Now we tell the parts how to move.

Before we dive into the tutorial, make sure you have Deform 3D installed on your computer. You can download the software from the official website or purchase it from an authorized reseller.

Select the Bottom_Die as the target and move the Workpiece until it clears or rests flat on the die surface.

: DEFORM includes specialized wizard modules that guide you through common process types—use these to learn before jumping into the general module.

Load the flow stress data, which maps how the material behaves under varying strain rates and temperatures. 4. Step 3: Meshing the Workpiece

Toggle on the Effective Plastic Strain contour map. Look for localized strain zones, which indicate where the material is working hardest. High tensile stresses can highlight areas prone to surface cracking.

Define the coefficient based on your lubrication state. Example: A shear friction factor (