Titanium CNC machining produces precision components from titanium alloys or commercially pure titanium, using controlled feeds, tooling, and cooling to manage the metal’s heat retention and tool wear. Titanium is selected when an assembly needs a high strength-to-weight ratio, corrosion resistance, or biocompatibility, with finishes chosen based on function rather than appearance. It is common in aerospace structures, medical instruments, and marine or chemical equipment where corrosion risk is high. To quote accurately, share drawings, quantity, grade, and any inspection or documentation requirements — we will return pricing plus engineering feedback on manufacturability.
Commercially pure and highly formable, suited to corrosion-exposed housings and chemical-handling components that do not require high strength.
The most common general-purpose grade, balancing strength and corrosion resistance for marine hardware, brackets, and process equipment.
The workhorse aerospace alloy, chosen for its strength-to-weight ratio in structural brackets, fasteners, and load-bearing mechanisms.
Extra-low-interstitial titanium for implant-adjacent components and surgical instruments, machined with controlled surface finish and full material traceability.
3-axis to 5-axis toolpaths for pockets, faces, and multi-hole patterns, with fixturing and feed control tuned to manage titanium’s heat and work-hardening tendencies.
Shafts, bushings, rings, and threaded parts machined with controlled concentricity, using tooling and speeds selected to limit tool wear on titanium stock.
Complex surfaces, angled holes, and multi-face features completed in fewer setups, improving datum control on compound-angle parts.
Small-diameter, long-length parts with tight length control, common for medical device pins and instrument components.
Used for sharp internal corners, fine slots, and profiles that are difficult to reach with end mills, minimizing burr risk on finished features.
Weight-sensitive structural brackets and high-load interfaces machined to defined tolerance stacks with full inspection documentation.
Instrument and device components requiring controlled burr management, fine surface finish, and traceable inspection records.
Structural interfaces and housings for rugged assemblies where corrosion resistance and drawing compliance are specified.
Flanges, brackets, and process-equipment hardware for corrosion-exposed or vacuum-system environments.
Wall-thickness-critical housings machined with controlled tool engagement and fixturing to reduce distortion while keeping mass low.
Pockets and internal cavities machined with extended tooling and chip-evacuation strategies to control heat build-up.
Small bores, micro threads, and fine details held to tight tolerances for medical and instrument assemblies.
Features distributed across multiple angles, machined with indexed setups or 5-axis strategies to keep positional accuracy.
Parts shipped with material certification and heat-lot identifiers for regulated supply chains.
Ballooned drawings, measured results, and revision control for first-article inspection on aerospace and regulated programs.
Dimensional and GD&T measurement results for critical features, with sampling plans or full inspection as required.
