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Skip to content Custom titanium components for industrial equipment, instrumentation, and mechanical assemblies. TENGHUI provides in-house CNC milling and turning, with material sourcing, surface finishing, and inspection requirements coordinated for each project.
Send your drawings and quantity requirements for a review of material availability, machining feasibility, and delivery options.
Select a titanium grade based on strength, corrosion exposure, part geometry, and manufacturing requirements. Material availability, stock form, and supply condition are confirmed during quotation.
| Material Grade | Manufacturing Process | Key Characteristics & Selection Notes | Typical Applications |
|---|---|---|---|
| Grade 5 Ti-6Al-4V | CNC milling and turning | A widely used titanium alloy offering high strength relative to its weight. Tool access, thin sections, surface requirements, and material condition should be reviewed before machining. | Brackets, housings, fasteners, and mechanically loaded equipment components |
| Grade 2 Commercially Pure Titanium | CNC milling and turning | Commonly selected where corrosion resistance and moderate strength are important. Its ductility requires attention to chip control, burrs, and workholding. Suitability depends on the actual operating environment. | Equipment fittings, covers, spacers, and selected fluid-handling components |
*Please specify the required material standard and condition on your drawing. Alternative grades are reviewed individually and are not substituted without approval. Material documentation requirements should be stated before ordering.
The comparison below provides general selection guidance. Actual properties depend on material specification, supply condition, product form, and dimensions.
| Selection Factor | Grade 5 — Ti-6Al-4V | Grade 2 — Commercially Pure Titanium |
|---|---|---|
| Main Selection Reason | Higher strength for weight-sensitive mechanical components | Corrosion resistance with moderate strength |
| Strength | Generally higher than Grade 2 | Generally lower than Grade 5 |
| Density | Approximately 4.43 g/cm³ | Approximately 4.51 g/cm³ |
| Machining Considerations | Cutting heat, tool wear, rigidity, and thin-wall stability | Ductility, chip control, burr formation, and deformation |
| Formability | More limited than commercially pure grades | Generally more formable than Grade 5; condition and geometry matter |
| Corrosion Considerations | Must be assessed against the operating environment | Must be assessed against the operating environment |
| Key Drawing Requirements | Material condition, critical fits, surface finish, and inspection | Material specification, dimensions, surface finish, and exposure conditions |
Surface finishing is selected according to appearance, roughness, contact conditions, and dimensional requirements. TENGHUI reviews the required finish and coordinates suitable processing where available.
Parts retain visible machining marks without an additional decorative treatment. This is a practical option when the machined surface meets the component’s functional requirements.
Bead blasting can create a matte texture and reduce the visibility of some machining marks. The result depends on the material, initial surface, media, and process settings.
Mechanical polishing can reduce surface roughness and increase gloss on accessible surfaces.
Color anodizing forms an oxide layer that produces metallic colors without conventional paint or dye. It may be considered for identification or decorative purposes.
Titanium can be useful where a combination of weight, strength, and corrosion performance justifies its material and manufacturing cost. The grade and manufacturing route should follow the component’s actual requirements.
Grade 5 is commonly considered when higher mechanical strength and low component weight are priorities.
Grade 2 may suit applications where corrosion resistance and moderate strength are sufficient. The choice should also account for geometry, operating conditions, material availability, and cost.
Specify the required grade and material standard on your drawing. If the material is undecided, share the application requirements for an initial manufacturing review.
TENGHUI provides in-house CNC milling and turning for titanium parts, subject to review of the drawing, material, size, and required features.
The machining plan is selected according to geometry, tool access, workholding, and inspection needs. Additional processes are evaluated individually during quotation.
We review tooling, cutting parameters, machining sequence, and workholding for the selected material and geometry.
Process planning focuses on stable cutting, chip control, and support for sensitive features. Thin walls, deep pockets, and close-tolerance surfaces receive additional review before production.
Titanium part tolerances are confirmed after reviewing dimensions, geometry, material condition, and finishing requirements.
Where feasible, selected CNC-machined features can achieve tolerances as tight as ±0.01 mm, subject to engineering review. This does not apply automatically to every feature or part.
Mark critical dimensions, fits, threads, and inspection requirements on your 2D drawing. Dimensional reports and CMM inspection can be discussed during quotation.
Titanium metal 3D printing can be reviewed as a separate project requirement. Material availability, build size, geometry, post-processing, and inspection must be confirmed before quotation.
If your design includes internal passages or features that are difficult to machine, send the CAD model for a manufacturing-route review. Critical surfaces may still require machining after printing.
Lead time is confirmed after reviewing the material availability, part complexity, quantity, finishing, and inspection requirements.
Titanium parts may require additional time for sourcing and machining. Share your target delivery date with the inquiry so we can assess a suitable production schedule.
Please provide:
For components with specific operating requirements, include the relevant temperature, loading, exposure conditions, and project specifications.
Upload your 2D drawings (PDF/DWG/DXF) and 3D CAD files (STEP/IGES). We evaluate part geometry, materials, and tolerances within 24 hours.
Once we receive your design files, our senior manufacturing engineers will manually perform a comprehensive DFM review and deliver an accurate, optimized quote within 24 hours.
