CNC Milling
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CNC Milling
3-axis, 4-axis, and 5-axis CNC milling for titanium parts with complex profiles, pockets, holes, threads, and tight-tolerance features.
CNC Turning
Precision CNC turning for titanium shafts, sleeves, fittings, bushings, threaded components, and other rotational parts requiring dimensional consistency and stable surface quality.
5-Axis CNC Machining
5-axis machining allows complex titanium components with angled surfaces, compound features, and multi-sided geometries to be produced in fewer setups, helping improve accuracy and consistency.
Swiss CNC Machining
Swiss CNC machining is suitable for small-diameter, long, and high-precision titanium parts such as pins, shafts, fasteners, fittings, and other intricate turned components.
Best for corrosion resistance and general industrial use.
Grade 2 is commercially pure titanium with excellent corrosion resistance and good ductility, making it suitable for chemical, marine, medical, and industrial components.
Best for high strength and lightweight performance.
Grade 5 is the most widely used titanium alloy for CNC machining, offering an excellent strength-to-weight ratio, good corrosion resistance, and broad applicability in aerospace and precision engineering.
Best for demanding medical and high-performance applications.
Grade 23 provides similar strength to Grade 5 with improved ductility and fracture toughness, making it suitable for applications requiring greater material reliability.
Choose Grade 2 when corrosion resistance and ductility are the priority, Grade 5 for high strength and general high-performance machining, and Grade 23 when enhanced toughness and demanding application requirements are involved.
For a more detailed comparison, explore our Titanium Grades & Alloys guide.
Our titanium CNC machining capabilities support small precision components, complex multi-axis parts, and larger machined components. Achievable tolerances and machining limits depend on titanium grade, part geometry, feature complexity, and drawing requirements.
Standard Machining Tolerance — ±0.05 mm (±0.002")
Suitable for many general dimensions and features on CNC machined titanium parts.
Tight-Tolerance Features — Down to ±0.025 mm (±0.001")
Available for selected critical features after reviewing part geometry, feature size, and inspection requirements.
Maximum CNC Milling Size — 3000 × 1500 × 1000 mm
Supports large-format titanium components subject to part geometry, material availability, and workholding requirements.
Maximum 5-Axis Machining Size — Ø650 × 300 mm
Suitable for complex titanium parts requiring multi-sided machining, angled features, and reduced setup changes.
Maximum CNC Turning Capacity — Ø500 × 600 mm
Supports titanium shafts, sleeves, flanges, fittings, and other rotational components.
Swiss Machining Bar Diameter — Ø3–20 mm
Suitable for small-diameter, high-precision titanium turned parts, including pins, shafts, fittings, and slender components.
Minimum Hole Diameter — Ø0.5 mm
Small precision holes can be machined depending on hole depth, feature accessibility, titanium grade, and tool requirements.
Minimum Wall Thickness — Part-Dependent
Thin-wall features are evaluated individually based on geometry, rigidity, workholding, material removal, and dimensional requirements.
Rigid machining conditions are important when cutting titanium because long tool reach, weak workholding, or unstable engagement can lead to chatter and tool deflection. We optimize fixturing, tool length, cutting paths, and setup strategy to improve stability. This is particularly important for complex 5-axis parts and features requiring longer tools.
Titanium chips can retain significant heat and may interfere with the cutting process if they are not removed efficiently. Poor chip evacuation can lead to recutting, surface damage, or premature tool wear. We use appropriate chip-breaking strategies, coolant flow, and machining sequences to keep the cutting area clear and stable.
Surface quality and dimensional accuracy can be affected by heat, vibration, tool wear, cutting force, and part rigidity. We use controlled finishing passes, suitable tooling, and inspection at critical stages to maintain drawing-defined requirements. Tight-tolerance features are reviewed individually based on geometry and inspection needs.
Bead blasting creates a uniform matte or satin surface and helps reduce the appearance of machining marks. It is often selected when a consistent non-reflective finish is preferred for visible or functional titanium components.
Titanium grade and material specifications are verified before machining to help ensure the correct alloy is used for production. Material certificates and traceability records can be provided when required, especially for projects involving Grade 2, Grade 5, or Grade 23 titanium.
