Metal Materials
BatchMach Precision provides custom titanium CNC machining services for precision parts requiring high strength, low weight, corrosion resistance, and reliable performance in demanding applications. With two ISO-certified CNC factories, we machine titanium components for prototypes, low-volume orders, and repeat production, with close control over cutting heat, tool wear, dimensional accuracy, and surface quality.
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19+
Years of Experience
250+
Machines & Testing Equipment
11,000 m²
Manufacturing Area
200+
Skilled Staff
ISO
9001 / 13485 / AS9100D
With years of experience in batch production and precision inspection of complex parts, we manufacture and inspect components to drawing requirements, covering critical dimensions, geometric tolerances, and material specifications. We provide complete measurement reports and material certificates to ensure delivered parts meet the specified requirements.
Our titanium CNC machining capabilities include milling, turning, and 5-axis machining for parts with different geometries, tolerance requirements, and production volumes. Each process is selected according to part structure, material grade, and critical features to maintain stable results during titanium alloy machining.
Our titanium milling capabilities support parts with pockets, slots, hole patterns, thin walls, and complex profiles. By controlling cutting conditions and machining sequence, we reduce heat buildup and distortion while maintaining dimensional accuracy and surface quality.
Titanium turning is suitable for shafts, sleeves, bushings, threaded parts, fittings, and other rotational components. We machine accurate diameters, bores, grooves, threads, and concentric features with consistent dimensional control.
5-axis machining is well suited to titanium parts with multiple faces, angled holes, deep cavities, and complex contours. Fewer setups reduce repositioning errors and help maintain the relationship between critical features.
Titanium has low thermal conductivity, which concentrates heat near the cutting edge and accelerates tool wear. We control tooling, cutting parameters, workholding, and machining sequence to maintain critical dimensions, thin-wall stability, and surface quality throughout production.
Titanium Grade 2 is a commercially pure titanium known for its corrosion resistance, ductility, and formability. Commonly supplied in sheet, plate, bar, and tubing, it is well suited to thin-walled parts and components exposed to seawater or corrosive chemicals. Grade 2 is widely used for heat exchangers, valve parts, fittings, housings, and medical equipment components.
345
Tensile Strength (MPa)
275
Yield Strength (MPa)
300
Fatigue Strength (MPa)
20
Elongation at Break (%)
160
Hardness (Brinell)
4.51
Density (g/cm³)
Material properties are typical values and may vary with product form, material condition, heat treatment, manufacturing specification, and test method. Fatigue strength also depends on surface condition, stress ratio, loading cycles, and test environment.
Surface finishing for CNC machined titanium parts is selected according to surface roughness, wear resistance, appearance, cleanliness, and functional requirements. Critical threads, mating surfaces, and precision features can be masked or controlled where necessary to maintain final dimensions.
Retains the original CNC-machined surface without secondary finishing. Suitable for functional titanium parts where dimensional accuracy, mechanical performance, cost, and lead time are the main priorities.
Polishing reduces machining marks and improves surface smoothness and appearance. It is commonly used for titanium parts with cosmetic, sealing, or low-roughness surface requirements.
Bead blasting produces a uniform matte finish and helps reduce visible machining marks. Threads, sealing surfaces, precision bores, and other critical features can be masked to protect fit and dimensional requirements.
Tumbling is suitable for deburring and smoothing edges on small titanium components, particularly when processing multiple parts. It should be carefully controlled where sharp edges, tight tolerances, or critical features must be maintained.
Electropolishing improves surface smoothness and cleanliness by removing a controlled amount of surface material. It is often specified for titanium components used in medical, fluid-handling, vacuum, and high-cleanliness applications.
Titanium anodizing forms a controlled oxide layer and can produce different colors without adding a conventional paint coating. It is commonly used for part identification, medical components, aerospace hardware, and applications requiring a distinctive appearance.
Brushing creates a consistent directional grain and helps minimize the appearance of light machining marks. It is suitable for visible titanium housings, panels, covers, and other components requiring a uniform cosmetic finish.
PVD coatings can increase surface hardness, wear resistance, and appearance while maintaining a relatively thin coating layer. They are suitable for titanium parts exposed to friction, repeated contact, or applications requiring improved surface durability.
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Titanium is widely used in aerospace because of its high strength-to-weight ratio, corrosion resistance, and ability to maintain mechanical performance under demanding conditions. We machine titanium aerospace parts such as structural brackets, actuator components, housings, fittings, fasteners, and other precision components.
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Titanium is used in performance and specialized automotive applications where weight reduction, strength, heat resistance, and corrosion resistance are important. Our Titanium Automotive Parts machining capabilities support valve-train components, suspension hardware, exhaust parts, fasteners, brackets, and other lightweight precision parts.
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Titanium is widely used in medical applications because of its biocompatibility, corrosion resistance, and high strength-to-weight ratio. CNC machining is suitable for Titanium Medical Parts such as surgical instruments, orthopedic components, implant-related parts, housings, and other precision components where material integrity, surface condition, and dimensional accuracy are critical.
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Titanium performs well in seawater and chloride-rich environments, making it suitable for marine and offshore applications where corrosion resistance and long service life are important. Typical applications include valve components, pump parts, fittings, fasteners, housings, and other precision parts exposed to harsh marine conditions.
BatchMach Precision owns two ISO-certified CNC machining factories with capabilities in titanium milling, turning, 5-axis machining, and precision inspection. Our in-house manufacturing resources allow us to allocate equipment and capacity based on the geometry and order requirements of Custom Titanium Parts, while maintaining direct control over production schedules and quality from prototypes and low-volume runs to repeat orders.
We review your titanium part drawings to identify thin walls, deep cavities, tight tolerances, and other machining challenges, helping resolve manufacturing issues before production.
With two owned ISO-certified CNC factories, BatchMach Precision supports titanium prototypes, small batches, and repeat orders through CNC milling, turning, and 5-axis machining.
We use CMM and vision measurement systems to check dimensions and features according to your drawings. Material certificates and first article inspection reports are available upon request.
We can evaluate commonly specified titanium grades such as commercially pure Grade 2, Ti-6Al-4V Grade 5, Grade 9, and Ti-6Al-4V ELI Grade 23. Material availability can depend on the required product form, size, specification, and certification.
Grade 2 is often selected when corrosion resistance and ductility are more important than maximum strength. Grade 5 is widely used for structural parts requiring a higher strength-to-weight ratio. Grade 23 has lower limits for interstitial elements than standard Grade 5 and may be specified for fracture-critical or medical applications. The final grade should be selected from the functional, regulatory, and drawing requirements rather than machinability alone.
We can machine critical features on titanium parts to tolerances as tight as ±0.005 mm. Please identify all critical dimensions, datums, and inspection requirements on the 2D drawing so we can confirm manufacturability before production.
Yes. BatchMach Precision supports one-off prototypes, engineering validation parts, low-volume orders, and repeat production of custom titanium parts. The machining plan may change as quantity increases.
A prototype may prioritize speed and design feedback, while repeat production may justify dedicated fixtures, optimized toolpaths, planned tool-life control, and more formal inspection documentation. Informing us of both the initial quantity and expected annual demand helps us recommend a suitable production approach.
Thin walls can move during machining because of cutting forces, clamping pressure, heat, and the release of residual stress from the raw material. Risk generally increases when a part has deep pockets, uneven wall sections, long unsupported features, or a high amount of material removal.
Depending on the geometry, the process may include balanced roughing, staged material removal, low-force workholding, semi-finishing, controlled finishing passes, and dimensional checks between operations. Thin-wall requirements should be clearly marked on the drawing so that deformation risk can be evaluated before production.
Yes. Our two CNC machining factories operate under ISO-certified quality management systems. Custom titanium machining projects are controlled through drawing review, material verification, in-process inspection, and final dimensional inspection using ZEISS and Hexagon CMMs. Please specify any project-specific certification, traceability, or inspection documentation requirements when requesting a quote.
Custom titanium machining is commonly used in industries that require high strength, low weight, corrosion resistance, or reliable performance under demanding operating conditions:
Aerospace: Titanium’s high strength-to-weight ratio and fatigue resistance make it suitable for structural brackets, connectors, housings, and actuator components.
Medical equipment: Certain titanium grades provide corrosion resistance and biocompatibility for surgical instruments, medical device components, and qualified implantable parts. Material, traceability, and regulatory requirements must be confirmed for each project.
Automotive and motorsports: Titanium helps reduce component weight while carrying mechanical loads, making it suitable for fasteners, suspension components, engine parts, and exhaust components.
Marine equipment: Its resistance to seawater corrosion makes titanium suitable for fittings, fasteners, valve components, and pump parts.
Chemical processing: Titanium can resist corrosion in certain chloride-containing and chemical environments. Typical parts include valves, fittings, housings, and fluid-handling components. Suitability must be confirmed based on the chemical, concentration, and operating temperature.
Energy and industrial equipment: Titanium is used for high-strength fasteners, rotating components, and mechanical parts exposed to corrosive environments.
The appropriate titanium grade should be selected according to load, temperature, corrosion exposure, weight targets, applicable standards, and project cost.
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