Tutorial: Deform 3d
For this tutorial, we will conceptualize a simple Upsetting Process (compressing a cylindrical billet between two flat dies). This is the "Hello World" of metal forming simulation.
Deform 3D requires a good mesh to converge. For a tutorial, start with a relative mesh.
Introduction: Why DEFORM 3D?
In the world of manufacturing engineering, predicting how a material behaves under pressure is no longer a luxury—it’s a necessity. DEFORM 3D, developed by Scientific Forming Technologies Corporation (SFTC), is the industry gold standard for simulating metal forming processes such as forging, extrusion, rolling, and heat treatment. Unlike general-purpose FEA software (like ANSYS or Abaqus), DEFORM is specialized for large plastic deformation. It handles mesh distortion with automatic remeshing, making it uniquely powerful when a billet turns into a complex turbine blade.
However, for a new user, the interface can feel daunting. This DEFORM 3D tutorial will walk you through the entire workflow: importing geometry, setting up material properties, defining objects, controlling the simulation, and analyzing results. deform 3d tutorial
Objective: Define the geometry, material, and simulation conditions.
| Task | Description |
| :--- | :--- |
| New Problem | Select "Machining" or "Forming" template. Choose SI (mm) or English units. |
| Geometry Import | Import .STL files for Workpiece, Top Die, Bottom Die. |
| Material Definition | Select from the extensive library (e.g., AISI-1045 steel, Aluminum 6061). |
| Simulation Controls | Set Step size (smaller = more accurate but slower), Number of steps, and Save interval. | For this tutorial, we will conceptualize a simple
You cannot forge "air." You need material flow stress data.
Objective: Apply thermal and mechanical boundary conditions. Set Number of Elements: 8,000 to 12,000 for