CFRP Carbon Fiber

Our HPC end mills for carbon fibre, featuring a right-hand helix and a high-thickness diamond coating, are engineered to combine high productivity with extended tool life.

Our HPC carbon fibre end mills, featuring a left-hand helix and a high-thickness diamond coating, are engineered to combine high productivity with extended tool life.

Our HPC carbon fibre end mills, featuring straight cutting edges and a high-thickness diamond coating, are engineered to combine high productivity with extended tool life.

Our HPC ball nose end mills for carbon fibre, featuring a right-hand helix and a high-thickness diamond coating, are engineered to combine high productivity with extended tool life.

Our HPC Up&Down end mills for carbon fibre, featuring opposed helix geometry and a high-thickness diamond coating, are engineered for optimal through-thickness machining. The compression cutting geometry prevents edge delamination, delivering clean surfaces and superior machining quality.

Our HPC 4-flute Up&Down end mills with alternating chipbreaker geometry provide a definitive solution for machining Kevlar without delamination.

Our HPC carbon fibre end mills, featuring a right-hand helix and diamond coating, are engineered to combine high productivity with extended tool life.

Also available in an uncoated version.

Our straight flute fibreglass end mills with chip breaker are designed to break the fibre and deliver a clean workpiece surface finish.

Also available with Cer-taC coating for extended tool life.

Our fibreglass end mills with 10° right-hand helix and chip breaker are designed to break the fibre and deliver a clean workpiece surface finish.

Also available with Cer-taC coating for extended tool life.

Our HPC Up&Down 2-flute end mills with alternating chip breaker provide an effective solution for machining Kevlar without delamination, both in drilling and milling operations.

The specialised front geometry ensures high stability and precision during drilling operations.

End mills for fibrous materials designed for contour machining. Available in three different configurations: fine, medium or coarse (F, M or G), to suit different machining conditions.

The multi-cutting-edge geometry allows the fibre to be pulverised during machining.

End mills for fibrous materials designed for contour machining with front cutting edges. Available in three different configurations: fine, medium or coarse (F, M or G), to suit different machining conditions.

The multi-cutting-edge geometry allows the fibre to be pulverised during machining.

End mills for fibrous materials designed for contour machining with two front cutting edges. Available in three different configurations: fine, medium or coarse (F, M or G), to suit different machining conditions.

The multi-cutting-edge geometry allows the fibre to be pulverised during machining.

End mills for fibrous materials designed for contour machining with Z=2 front cutting edges. Available in three different configurations: fine, medium or coarse (F, M or G), to suit different machining conditions.

The multi-cutting-edge geometry allows the fibre to be pulverised during machining. In addition, the front cutting edges enable the tool to be used for drilling operations.

Ball nose end mill designed for contour machining of fibrous composite materials, featuring front cutting edges. Available with Fine (F) or Medium (M) tooth geometry to suit different machining conditions.

The multi-edge cutting geometry pulverises the glass fibres during machining.

Z=4 straight-flute drills, ideal for both manual and CNC drilling.
The specific geometry of the cutting edge prevents CFRP delamination and the separation of the layers.

Also available with Cer-DLC coating for extended tool life.

Drills with a specific dagger-point geometry that makes them ideal for drilling aramid and glass fibres, ensuring excellent stability and precision while preventing any delamination of the fibre.

Suitable for both manual and CNC drilling.

High-performance solution designed for intensive, automated drilling of carbon fibre on CNC machining. Thanks to the internal coolant or compressed air channels, the tool instantly evacuates abrasive dust and drastically reduces temperatures in the cutting area.

Specifically developed for high-performance drilling of complex sandwich materials, such as carbon fibre stacked with titanium or aluminum. Thanks to its specialized multi-material geometry and internal coolant supply, the drill seamlessly manages both the highly abrasive carbon and the metals' tendency to overheat or stick.