Autodesk Inventor

Create a master assembly with iLogic parameters for length, width, and motor type.

Link an Excel spreadsheet or Form to the iLogic parameters.

Input customer specifications into the custom UI form.

The model automatically updates geometry, part numbers, and BOM.

Export final production drawings and DXF files for laser cutting.

Identify 'preserve' and 'obstacle' geometries in the Inventor assembly.

Push the geometry to the Generative Design cloud service.

Define load cases (tension, compression, torque).

Select the 'Best Outcome' from 100+ AI-generated iterations.

Import the mesh back into Inventor as a functional solid for final validation.

Import SolidWorks .SLDPRT files using AnyCAD 'Reference Model' option.

Build the main assembly around the referenced parts.

Receive updated files from the subcontractor and overwrite the local file.

Inventor automatically detects the change and updates constraints and drawings.

Perform a global clash detection to ensure fit-up.

Use the 'Shrinkwrap' tool to simplify internal components for IP protection.

Apply 'BIM Content' authoring to define connection points (pipes/electrical).

Export the file as a Native Revit Family (.rfa).

Coordinate the equipment location within the Revit architectural model.

Ensure no structural interferences exist between the machinery and the building.

Open the Sheet Metal part (.ipt) and define flat pattern rules.

Launch the Inventor Nesting utility from the PDM collection.

Add multiple part quantities to the nesting study.

Calculate the most efficient material yield for 4x8 steel sheets.

Generate the DXF or CAM toolpaths directly from the nest results.

Define material thermal properties (conductivity) for the enclosure and components.

Apply heat flux constraints to the internal processors.

Set up convection cooling parameters for external surfaces.

Run the steady-state thermal analysis.

Iterate the design by adding cooling fins based on the temperature gradient map.

Apply 'Joints' rather than 'Constraints' to allow degrees of freedom.

Enter the Dynamic Simulation environment.

Add an imposed motion (RPM) to the input crank.

Run the simulation and graph the torque required at the motor.

Export the peak load data into the Stress Analysis environment for a fatigue study.