TM10763 Titanium Alloy Wire Ti-3Al-2.5V Grade 9 UNS R56320

Titanium Alloy Wire Ti-3Al-2.5V Grade 9 UNS R56320 Description

Titanium Alloy Wire Ti-3Al-2.5V Grade 9 UNS R56320 is manufactured from a titanium alloy comprising 3% aluminium and 2.5% vanadium. This composition provides a balanced combination of strength and ductility for structural applications. The wire undergoes precise thermomechanical processing to achieve a uniform microstructure, which aids in consistent mechanical performance. Its formulation complies with ASTM B265 standards, ensuring standardised quality across batches.

Titanium Alloy Wire Ti-3Al-2.5V Grade 9 UNS R56320 Characteristics

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

Titanium Alloy Wire Ti-3Al-2.5V Grade 9 UNS R56320 Applications

Aerospace
- Utilised as fastener elements in aircraft assemblies to achieve weight reduction by leveraging a high strength-to-weight ratio.

Medical Devices
- Applied in implantable device connectors to ensure biocompatibility and mechanical integrity while mitigating corrosion risks.

Industrial Equipment
- Serves as a structural support component in high-temperature processing equipment, providing consistent mechanical performance under stress.

Titanium Alloy Wire Ti-3Al-2.5V Grade 9 UNS R56320 Packing

The wire is packaged in moisture-resistant, anti-static reels and vacuum-sealed pouches to prevent surface oxidation and contamination. Each package is cushioned with inert padding to minimise mechanical damage during transit. Storage instructions recommend a cool, dry environment to maintain material integrity. Custom packaging solutions, including size-specific reels and labelling, are available upon request.

Additional Information

Titanium alloys are widely used in industries where a combination of low weight and high strength is essential. The Ti-3Al-2.5V composition offers a balanced performance profile that is particularly useful in applications requiring both ductility and structural integrity. Extensive metallurgical research supports the optimisation of processing parameters to achieve a uniform microstructure, which is critical for repeatable performance.

Understanding the interplay between alloy composition and thermomechanical treatment is key in materials science. This knowledge not only facilitates improvements in product performance but also guides engineers in selecting appropriate materials for specialised applications in industrial and biomedical fields.