TM10773 Titanium Alloy Tube Ti-0.3Mo-0.8Ni Grade 12 UNS R53400

Titanium Alloy Tube Ti-0.3Mo-0.8Ni Grade 12 UNS R53400 Description

Titanium Alloy Tube Ti-0.3Mo-0.8Ni Grade 12 UNS R53400 is manufactured from titanium with precise additions of 0.3% Mo and 0.8% Ni to optimise its performance in structural and fluid transfer applications. The defined chemical composition and controlled processing result in predictable mechanical and thermal properties. The tube's consistent wall thickness and adherence to ASTM B265 make it adaptable for engineering systems where dimensional accuracy and material stability are critical factors.

Titanium Alloy Tube Ti-0.3Mo-0.8Ni Grade 12 UNS R53400 Characteristics

*The above product information is based on theoretical data and is for reference only. Actual specifications may vary.

Titanium Alloy Tube Ti-0.3Mo-0.8Ni Grade 12 UNS R53400 Applications

1.       Industrial Piping and Fluid Control
   - Used as tubing in chemical processing systems to achieve corrosion resistance by leveraging the alloy's inert properties.
   - Applied in heat exchanger assemblies to maintain temperature stability through effective thermal conductivity.

2.       Structural and Mechanical Systems
   - Serves as a component in high-stress environments to assure dimensional stability by leveraging verified mechanical properties.
   - Frequently used in precision assembly frameworks where controlled alloy consistency minimises structural deformation.

Titanium Alloy Tube Ti-0.3Mo-0.8Ni Grade 12 UNS R53400 Packing

The tube is individually packaged with protective anti-scratch wraps and inserted in foam-lined, corrosion-resistant containers. Each package minimises exposure to moisture and mechanical impact during transit. Storage instructions recommend a temperature-controlled, dry environment. Customised packaging options, including tailored container sizes and labelling, are available to meet specific logistical and handling requirements.

Additional Information

Titanium alloys have been extensively studied for their performance in both high-temperature and corrosive environments. Their inherent corrosion resistance and favourable strength-to-weight ratio allow for use in critical engineering applications and precise fluid control systems. Studies indicate that controlled alloying elements and processing methods significantly improve performance consistency.

Understanding the microstructural changes during thermal treatments and working processes is essential for predicting service life. Researchers continue to investigate the effects of minor alloy additions on mechanical properties and dimensional stability, ensuring these alloys meet rigorous engineering standards while addressing industry demands.