Titanium CNC Machined Parts

We manufacture precision CNC machined parts from Titanium Grade 2, Grade 5 (Ti-6Al-4V), Grade 9 and other titanium alloys. CNC turning, milling and 5-axis machining are available for complex geometries, tight tolerances and small to production quantities.

 

Titanium Grades: Grade 2, Grade 5, Grade 9, Grade 23

Machining: CNC Turning, CNC Milling, 5-Axis CNC

Capabilities: Complex geometries, precision holes, threads, pockets and contours

Applications: Aerospace, marine, chemical processing, automotive and industrial equipment

 

Capability	Specification / Details
CNC Turning	Titanium shafts, pins, bushings, sleeves, fittings and other cylindrical parts
CNC Milling	Plates, brackets, housings, blocks, flanges and parts with pockets, slots and threaded holes
5-Axis CNC Machining	Complex 3D surfaces, angled features, deep cavities and multi-face machining in a single setup
Turn-Mill Machining	Combines turning and milling for shafts, fittings and complex rotational components
Part Size	Small precision components to larger custom machined parts; size based on machine capacity
Dimensional Tolerance	Standard CNC tolerances and tighter tolerances for critical features; capability confirmed during DFM review
Hole & Thread Machining	Through holes, blind holes, tapped holes, counterbores, countersinks and custom threads
Production Volume	Prototypes, low-volume batches, repeat production and higher-volume orders
CAD File Formats	STEP, STP, IGES, X_T, DWG, DXF and other common engineering formats
Material Grades	Titanium Grade 2, Grade 5 (Ti-6Al-4V), Grade 9, Grade 23 and specified titanium alloys

 

Need Custom Titanium CNC Parts? Send us your CAD file, titanium grade and quantity. We'll review the part requirements and provide a machining solution and quotation.

 

Different titanium grades offer different combinations of strength, corrosion resistance, weight and machinability. We machine commonly specified grades for industrial and high-performance applications.

Titanium Grade	Key Properties	Typical CNC Machined Parts
Grade 1	Lowest strength, excellent ductility and corrosion resistance	Thin-wall parts, chemical processing components, fittings
Grade 2	Good strength, excellent corrosion resistance and relatively good machinability	Fittings, brackets, housings, shafts, marine components
Grade 5 (Ti-6Al-4V)	High strength-to-weight ratio, high strength and good fatigue performance	Aerospace parts, shafts, brackets, structural components
Grade 9 (Ti-3Al-2.5V)	Moderate strength, good ductility and corrosion resistance	Tubular components, lightweight fittings, aerospace parts
Grade 23 (Ti-6Al-4V ELI)	High strength, toughness and improved fracture resistance	Aerospace, high-performance and critical components

 

How to Choose the Right Titanium Grade

Requirement	Recommended Grade	Why
Maximum corrosion resistance with moderate strength	Grade 1	Excellent corrosion resistance and ductility; suitable for low-stress components
General industrial corrosion resistance	Grade 2	Higher strength than Grade 1 while maintaining excellent corrosion resistance; a practical choice for fittings, housings and marine parts
High strength + lightweight design	Grade 5 (Ti-6Al-4V)	Much higher strength than commercially pure titanium; widely used for aerospace, automotive and high-performance components
Balance of strength, ductility and formability	Grade 9 (Ti-3Al-2.5V)	Stronger than CP titanium grades while offering good ductility; suitable for lightweight tubular and structural components
High strength + improved toughness	Grade 23 (Ti-6Al-4V ELI)	Lower interstitial content provides improved ductility and fracture toughness for demanding applications
Chemical / marine environments	Grade 2	Strong corrosion resistance makes it suitable for seawater and many chemical-processing environments
Aerospace structural components	Grade 5 / Grade 23	High strength-to-weight ratio with good fatigue and mechanical performance
Low-load, thin-wall components	Grade 1	Excellent ductility and corrosion resistance with relatively low material strength

 

Quick Selection:
Grade 1 → corrosion resistance + ductility
Grade 2 → general industrial & marine use
Grade 5 → high strength + lightweight
Grade 9 → strength + ductility + formability
Grade 23 → high strength + toughness for demanding applications

 

Titanium requires controlled cutting parameters, rigid workholding and appropriate tooling to manage heat and tool wear. We select the machining process according to part geometry, tolerance, material grade and production volume.

Machining Process	Best For	Typical Titanium Parts
CNC Turning	Cylindrical and rotational components	Shafts, pins, bushings, sleeves, fittings
CNC Milling	Flat, prismatic and pocketed geometries	Brackets, plates, housings, flanges
5-Axis CNC Machining	Complex 3D surfaces and multi-face features	Aerospace brackets, impellers, complex housings
CNC Turn-Mill	Parts combining turning and milling features	Complex shafts, connectors, fittings
Swiss CNC Machining	Small-diameter, high-precision components	Pins, miniature shafts, connectors, bushings
CNC Drilling & Tapping	Precision holes and threads	Mounting plates, flanges, housings, fittings

 

How We Select the Process

Simple cylindrical part → CNC Turning
Prismatic part with pockets/holes → CNC Milling
Complex multi-face geometry → 5-Axis CNC
Rotational part with milled features → Turn-Mill
Small, long and precision parts → Swiss CNC

 

Have a Complex Titanium Part? Send your CAD drawing and requirements. We'll recommend the appropriate machining process for your part.

 

We provide precision titanium CNC machining for components requiring controlled dimensional and geometric tolerances.

Tolerance / Specification	Typical Capability
Linear Dimensions	±0.02 mm for standard features; down to ±0.01 mm for selected critical dimensions
External Diameter (OD)	±0.01–±0.02 mm for precision turned shafts and cylindrical features
Internal Diameter (ID)	±0.01–±0.02 mm using precision boring or reaming
Hole Diameter	±0.01–±0.02 mm for precision holes, depending on diameter and depth
Hole Position	Typically ±0.02–±0.05 mm for controlled mounting-hole locations
Thickness	±0.02–±0.05 mm depending on material thickness and part geometry
Length / Width / Height	±0.02–±0.05 mm for common machined dimensions
Flatness	Up to 0.02–0.05 mm on controlled mounting surfaces
Parallelism	Up to 0.02–0.05 mm between specified surfaces
Perpendicularity	Up to 0.02–0.05 mm between critical surfaces
Concentricity / Coaxiality	Up to 0.02–0.05 mm for selected cylindrical features
Thread Tolerance	Metric, UNC, UNF, NPT and custom threads; tolerance class specified per drawing
Chamfer / Radius	Typically ±0.05 mm
Surface Roughness	Ra 0.8–3.2 μm for typical CNC-machined surfaces; finer finishes available

 

Titanium CNC parts can be supplied with different surface finishes based on appearance, surface roughness, corrosion resistance and functional requirements.

Surface Finish		Suitable Titanium Parts / Applications
As Machined	Visible tool marks; typically Ra 1.6–3.2 μm	Shafts, pins, bushings, internal components
Polishing	Smooth, low-roughness surface with improved appearance	Fittings, visible components, precision parts
Bead Blasting	Uniform matte texture that hides machining marks	Housings, brackets, enclosures
Brushing	Directional satin texture	Covers, housings, visible equipment components
Passivation / Chemical Cleaning	Cleaned titanium surface with reduced surface contamination	Chemical, marine and corrosion-sensitive components
Anodizing	Controlled oxide layer with selectable colors and surface characteristics	Aerospace, decorative and identification components
Electropolishing	Very smooth, bright surface with reduced surface roughness	Small precision parts, fittings and components requiring enhanced cleanability

 

Surface Roughness Options

Ra 3.2 μm - General CNC machining

Ra 1.6 μm - Precision machined surfaces

Ra 0.8 μm - Fine machining

Ra ≤0.4 μm - Polished / specially finished surfaces

 

Surface finish can be specified by Ra value, visual appearance or both. For critical sealing, sliding or mating surfaces, the required roughness and finishing process should be defined on the engineering drawing.

 

We control titanium CNC parts through material verification, in-process inspection and final dimensional inspection to ensure the finished parts meet drawing requirements.

Quality Control Item	Inspection Method / Equipment	What We Check
Material Verification	Material certificate / PMI	Titanium grade, chemical composition and material traceability
Dimensional Inspection	CMM, calipers, micrometers	Length, width, thickness, diameters and critical dimensions
Geometric Inspection	CMM	Flatness, parallelism, perpendicularity, position and concentricity
Hole Inspection	Bore gauges, pin gauges	Hole diameter, depth and location
Thread Inspection	Go/No-Go gauges, thread gauges	Thread size, pitch and fit
Surface Roughness	Roughness tester	Ra value of specified surfaces
Visual Inspection	Magnification / visual inspection	Burrs, scratches, tool marks, dents and surface defects
Hardness Testing	Hardness tester	Material hardness when specified
Final Inspection	CMM + inspection checklist	Critical dimensions, tolerances, appearance and drawing compliance
Inspection Report	Dimensional inspection report	Recorded measurement results for customer review

 

Need Inspection for Your Titanium Parts? Send your drawing and inspection requirements to discuss the appropriate quality control plan. 

 

Titanium CNC machined parts are used where high strength-to-weight ratio, corrosion resistance and long-term performance are important.

Industry	Typical Titanium CNC Components	Common Grades
Aerospace	Structural brackets, mounting blocks, shafts, housings, fittings	Grade 5, Grade 23
Automotive	Shafts, fasteners, brackets, valve components, lightweight structural parts	Grade 5, Grade 9
Marine	Fittings, flanges, shafts, connectors, pump components	Grade 2, Grade 5
Chemical Processing	Valve bodies, pipe fittings, flanges, pump components, adapters	Grade 2, Grade 7
Industrial Equipment	Bushings, housings, brackets, precision shafts, machine components	Grade 2, Grade 5
Robotics & Automation	Lightweight brackets, end-effectors, shafts, mounting components, housings	Grade 5, Grade 9

 

Why Titanium Is Used

High strength with low weight for lightweight structural components

Excellent corrosion resistance for marine and chemical environments

Good fatigue performance for moving and cyclic-load components

High temperature capability for demanding industrial applications

Long service life where conventional materials may corrode or add excessive weight

 

Need Titanium Parts for Your Application? Send your CAD drawing, material grade and quantity for a customized machining solution.

 

Titanium is typically selected when high strength-to-weight ratio, corrosion resistance and performance in demanding environments are more important than low material cost or easy machinability.

Property	Titanium	Aluminum	Stainless Steel	Brass
Density	~4.5 g/cm³	~2.7 g/cm³	~7.9–8.0 g/cm³	~8.4–8.7 g/cm³
Strength-to-Weight Ratio	Excellent	Good	Good	Moderate
Corrosion Resistance	Excellent	Good	Excellent	Good–Excellent
Temperature Resistance	High	Moderate	High	Moderate
Machinability	Difficult	Excellent	Good–Moderate	Excellent
Material Cost	High	Low	Moderate–High	Moderate
Typical Advantage	Strength + low weight	Low weight + easy machining	Strength + corrosion resistance	Machinability + conductivity
Typical Applications	Aerospace, marine, chemical equipment	Aerospace, electronics, automation	Industrial equipment, automotive	Fittings, connectors, valves

 

How to Choose

Choose Titanium when:

You need high strength without excessive weight

The component will operate in corrosive environments

High fatigue performance is important

Weight reduction is a major design requirement

The part is used in aerospace, marine or demanding industrial applications

 

Choose Aluminum when low weight, easy machining and lower material cost are the priorities.

 

Choose Stainless Steel when high strength, durability and corrosion resistance are required but titanium's weight advantage is not essential.

 

Choose Brass when excellent machinability, electrical conductivity or cost-effective production is more important than high strength-to-weight performance.

 

Packaging

Individual Protection: Each titanium part can be wrapped separately with protective film or soft material.

Surface Protection: Finished and precision-machined surfaces are protected against scratches and handling damage.

Inner Packing: Foam, EPE, bubble wrap or compartment packaging keeps parts separated.

Outer Packing: Parts are packed in strong cartons or wooden cases according to size, weight and shipment method.

Custom Packaging: Special packaging is available for fragile, high-value or precision components.

 

Typical Lead Time

Order Stage	Typical Lead Time
DFM Review & Quotation	1–2 business days
Prototype Parts	5–10 business days
Small-Batch Production	7–15 business days
Repeat Production	7–20 business days
Large / Complex Orders	Confirmed based on quantity and machining complexity

 

Need a Reliable Lead Time for Your Titanium CNC Parts? Send your CAD file, titanium grade, quantity and delivery location. We'll confirm the production schedule with your quotation.

 

1. What titanium grades can you CNC machine?

We commonly machine Grade 1, Grade 2, Grade 5 (Ti-6Al-4V), Grade 9 and Grade 23 (Ti-6Al-4V ELI). Other titanium alloys can be considered based on the project requirements.

 

2. Is titanium difficult to CNC machine?

Titanium is more difficult to machine than aluminum or brass because of its low thermal conductivity, high cutting temperature and tendency to cause tool wear. Proper tooling, cutting parameters and coolant control are required.

 

3. What tolerances can you achieve on titanium CNC parts?

Typical dimensions can be controlled to ±0.02–±0.05 mm, with selected critical features achievable to around ±0.01 mm, depending on part geometry, size and machining process.

 

4. Can you provide 5-axis titanium CNC machining?

Yes. 5-axis CNC machining is available for complex titanium components with angled surfaces, deep cavities, multi-face features and complex 3D contours.

 

5. What titanium parts can you manufacture?

We manufacture shafts, pins, bushings, sleeves, brackets, fittings, flanges, housings and custom components according to customer drawings.

 

6. What surface finishes are available?

Depending on the titanium grade and application, options include as-machined, polishing, bead blasting, brushing, chemical cleaning and anodizing.

 

7. Can you provide material certificates for titanium parts?

Yes. Material certificates and material traceability documentation can be provided when required by the project.

 

8. What file formats do you accept?

We commonly accept STEP, STP, IGES, X_T, DWG and DXF files. 2D drawings with critical tolerances and specifications are also recommended.

 

9. What is the typical lead time?

Prototypes typically take around 5–10 business days, while small-batch production commonly takes 7–15 business days. Actual lead time depends on quantity, complexity, material availability and finishing requirements.

 

10. Can you manufacture titanium prototypes and small batches?

Yes. We support prototype, low-volume, repeat and production orders, allowing customers to validate designs before moving to larger quantities.

 

11. How do you inspect titanium CNC machined parts?

Inspection can include CMM measurement, micrometers, calipers, bore gauges, thread gauges, surface roughness testing and visual inspection. Inspection reports can be supplied for projects requiring documented dimensional results.

 

12. How can I get a quote for titanium CNC machined parts?

Send us your CAD file, titanium grade, quantity, tolerances, surface finish and delivery requirements. Our team will review the part and provide a quotation and production lead time.

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