CAD/CAM Module Automates Die-Sinking Electrode Design
Open Mind Technologies’ HyperCAD-S Electrode module for its HyperMill software automates the design and production of electrodes for die-sinking, enabling users to base their electrode designs on the face to be machined within the component geometry.
Open Mind Technologies’ HyperCAD-S Electrode module for its HyperMill software automates the design and production of electrodes for die-sinking, enabling users to base their electrode designs on the face to be machined within the component geometry, all without requiring special expertise.
The NC programmer selects the faces that will be die-sunk, and the CAD software automatically extends the electrode faces as needed, selecting the blank and holder from a library. The module is suitable for solid and face models, and the geometry can be selected via faces or contours. Any holes in the geometry are filled automatically. The module also calculates the minimal rib distance, the blank’s excess and the C-angle offset. The data, including spark gap, blank size, positional reference and color areas, are automatically transferred to HyperMill, where the user can select the electrode and begin programming in a separate dialogue window. When the required information has been entered, the system automatically generates a job list containing all the relevant parameters.
Related Content
-
How to Reduce Cycle Times by 70% and More on Your Existing CNCs and Dramatically Improve Tool Life Too
By employing advanced high efficiency milling techniques for the entire machining routine, SolidCAM’s iMachining technology can drastically reduce cycle times while vastly improving tool life compared to traditional milling.
-
Inside an Amish-Owned Family Machine Shop
Modern Machine Shop took an exclusive behind-the-scenes tour of an Amish-owned machine shop, where advanced machining technologies work alongside old-world traditions.
-
A New Milling 101: Milling Forces and Formulas
The forces involved in the milling process can be quantified, thus allowing mathematical tools to predict and control these forces. Formulas for calculating these forces accurately make it possible to optimize the quality of milling operations.