High Precision Die Punch for Progressive & Precision Stamping
High Precision Die Punch for Progressive & Precision Stamping
High precision die punch made of tungsten carbide and finished by PG profile grinding. Designed for progressive dies and precision stamping with excellent wear resistance and dimensional accuracy.
High Precision Die Punch is made of premium tungsten carbide and finished by advanced PG profile grinding, ensuring outstanding dimensional accuracy, edge quality, and long service life.
Applications
This die punch is specifically designed for progressive dies and high-precision stamping applications, where tight tolerances, stable performance, and wear resistance are critical. PG profile grinding allows complex punch profiles, sharp cutting edges, and consistent repeatability, making it ideal for both standard and non-standard punch designs
Key Features
Tungsten carbide material for superior wear resistance
PG profile grinding for high accuracy and sharp profiles
Suitable for progressive dies and precision stamping
Excellent consistency for mass production
Custom-made according to customer drawings
All punches are produced strictly according to customer drawings. Material selection optimized based on application conditions such as stamping material, production volume, and tool life requirements.
Technical Capabilities
Parameter
Typical Values / Notes
Dimensional accuracy
±0.001 mm
Surface roughness (Ra)
0.1 – 0.2 μm typical
Repeatability
±0.002 mm
Minimum feature size
0.1 mm edge/slot
Maximum part size
Up to 400 mm × 200 mm × 150 mm (depends on machine model)
Max material hardness
HRC 68 (tungsten carbide, tool steel)
Key point: PG excels at small, delicate, or thin-walled parts without deformation.
Clean and Accurate Profile Geometry, Precise Radius (R) Control and Smooth Surface Finish
Every PG grinding punch is clean and accurate profile geometry, precise radius (R) control, and smooth surface finish. They are important for reducing wear, improving punch life, and ensuring consistent cutting quality during high-volume stamping operations.