High Precision

CNC machining titanium is known for its ability to achieve a high level of precision and accuracy. This is why it is used in the aerospace, medical, and other high-precision industries that demand parts with tight tolerances. CNC machines excel in this aspect, ensuring that even complex and intricate components are accurately manufactured. CNC machining can consistently meet stringent specifications, whether creating intricate medical implants or aerospace components.

Material Efficiency

Efficiency in material usage is a significant benefit of CNC machining titanium. Titanium is an expensive material, and minimizing waste is crucial for cost-effectiveness. CNC machines are designed to efficiently remove material, ensuring that expensive titanium is used optimally. The reduction in material waste not only saves costs but also contributes to sustainability by minimizing environmental impact.

Complex Geometries

CNC machining is versatile and capable of producing complex and intricate part geometries, which can be challenging to achieve with traditional manufacturing methods. This adaptability is particularly valuable in industries where custom or intricately designed components are essential. CNC titanium parts allow manufacturers to bring highly intricate and complex designs to life, opening up possibilities for innovative products and solutions in aerospace, medical devices, and more.

Repeatability

Consistency is a hallmark of CNC titanium machining services. CNC machines can produce large quantities of parts with uniform quality. This is particularly valuable in industries like aerospace and automotive, where component quality, reliability, and uniformity are paramount. Whether you need one component or thousands, CNC machining ensures that each part meets the same high-quality standards, reducing the chances of defects and ensuring product reliability.

Surface Finish

CNC machining can achieve excellent surface finishes on titanium components. This is a critical feature, especially in applications where the appearance and smoothness of the final product matter. In the medical and aerospace sectors, where components must meet high standards of cleanliness and aesthetics, titanium CNC machining ensures that the finished product performs exceptionally and looks the part.

Tool Life Management

Machining titanium can be challenging due to its abrasiveness and tendency to cause tool wear. However, CNC machining can be optimized to manage tool life effectively. With the proper tooling and cutting strategies, the durability and lifespan of cutting tools can be extended, reducing tool replacement costs. This tool life management is essential for controlling production expenses, making CNC titanium parts a cost-effective choice.

To get the most accurate and affordable titanium parts, CNC machining is almost always the best manufacturing technique. To understand why, let’s look at the alternatives.

Manufacturers rarely make titanium parts by casting. This is because heated titanium reacts violently with oxygen, and many refractory materials used in casting contain trace amounts of oxygen.

A workaround is to use rammed graphite casting — using an oxygen-free graphite cast — but this produces parts with a very rough surface texture not suitable for most medical, aerospace, and industrial applications. It is also possible to make titanium parts with lost wax casting, but this requires a vacuum chamber.

A newer option is the use of additive manufacturing for titanium parts. A handful of 3D printing technologies, like Selective Laser Melting (SLM), Electron Beam Melting (EBM), and Direct Energy Deposition (DED), can process titanium 3D printing materials. However, these 3D printing systems are very expensive, and many industries have not yet certified 3D printed titanium for safety-critical end-use parts.

Compared to the alternatives, CNC machining is an accurate, safe, versatile, and affordable way to make titanium parts.

Hardness Rockwell 30T

Tensile Strength Ultimate

Tensile Strength, Yield

Elongation at Break

Tensile Modulus

Feature

Grade 1 Titanium

70 HR30T

240 MPa

170 MPa

24%

105 GPa

High Corrosion Resistance

Grade 2 Titanium

80 HR30T

345 MPa

275 MPa

20%

105 GPa

Excellent Strength-to-Weight Ratio

Grade 5 Titanium

36-38 HR30T

880 MPa

830 MPa

10%

114 GPa

High Strength

Grade 9 Titanium

80 HR30T

900 MPa

830 MPa

15%

118 GPa

Excellent Balance of Strength, Toughness, and Workability

Grade 23 Titanium

40-45 HR30T

860 MPa

790 MPa

10%

114 GPa

High Biocompatibility

Strong Manufacturing Capabilities

Get fast Quotation

Tight Tolerance Aerospace Parts

Fast lead Time