OUR TECHNOLOGY / FOUR STEPS

Control heat. Engineer precision.

A four-step approach to selecting titanium machining technologies. Match each method to the alloy, geometry and surface requirements, then validate it through trials.

Visualization of an enclosed CNC machining hall with titanium components and lime-accented equipment
Precision manufacturing / Workshop design
01 / STEP

Control heat & friction

Cryogenic cooling: LN₂ or CO₂ targets heat at the cutting zone. High-pressure coolant (HPC): directed jets support cooling and chip evacuation. Minimum quantity lubrication (MQL): a fine oil mist reduces friction with low fluid use; demanding cuts may need additional cooling.

02 / STEP

Choose the cutting method

Fiber laser: precise sheet profiling with a qualified assist gas, typically argon for titanium to limit reactive contamination. Abrasive waterjet: water and grit cut thicker plate without a thermal heat-affected zone; check taper and edge finish.

03 / STEP

Optimize tool motion

Ultrasonic vibration cutting (UVC): controlled micro-vibrations can reduce cutting forces and improve chip formation. Trochoidal milling: looping paths with low radial engagement manage tool load and heat; axial depth follows tool and machine limits.

04 / STEP

Match the edge & coating

Micro-honed edges and chip-breaker geometry balance sharpness with edge strength. Select titanium-rated carbide tools and suitable coatings, such as TiAlN where recommended. Evaluate CBN tooling and DLC coatings separately for the specific operation; confirm wear and surface quality through trials.

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