TM10724 Titanium Aluminium Niobium Alloy Plate, TiAlNb UNS R56700

Titanium Aluminium Niobium Alloy Plate, TiAlNb UNS R56700 Description

Titanium Aluminium Niobium Alloy Plate, TiAlNb UNS R56700 is manufactured with a tightly controlled composition, typically reflecting a nominal formulation close to Ti-6Al-7Nb. The plate undergoes processing to achieve a uniform grain structure and controlled thickness, ensuring compatibility with precision machining and forming techniques. The consistent microstructure minimises anisotropy in mechanical properties, supporting load-bearing applications that require stability under thermal and mechanical stresses.

Titanium Aluminium Niobium Alloy Plate, TiAlNb UNS R56700 Characteristics

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

Chemical Composition

Titanium Aluminium Niobium Alloy Plate, TiAlNb UNS R56700 Applications

1.       Biomedical Devices
   - Serves as a component in orthopaedic implants to provide biocompatibility combined with sufficient mechanical strength.
   - Used in surgical instruments requiring precise dimensions and stable mechanical properties, minimising corrosion and wear.

2.       Industrial Processing Equipment
   - Applied as wear-resistant plates in high-temperature processing systems to ensure dimensional stability.
   - Serves in chemical processing systems where its corrosion resistance and inert surface reduce contamination and extend service life.

Titanium Aluminium Niobium Alloy Plate, TiAlNb UNS R56700 Packing

The alloy plates are packaged in moisture-resistant, anti-corrosive wrapping materials and cushioned with recycled foam inserts to prevent mechanical damage during transit. Store in a dry, temperature-controlled environment to avoid contamination and thermal stress. Customised packaging solutions are available based on size, weight, and end-use requirements, ensuring safe handling and storage.

Additional Information

Titanium alloys such as TiAlNb UNS R56700 are widely studied in materials science due to their favourable strength-to-weight ratios and corrosion resistance. Detailed analytical methods, including X-ray diffraction and energy-dispersive spectroscopy, are frequently used to assign phase composition and assess microstructural uniformity.

Within industrial and biomedical sectors, the balance between alloying elements significantly affects mechanical and chemical performance. Advances in melting and forging techniques have enabled tighter compositional tolerances and more consistent grain structures, providing a solid basis for further innovation in high-performance material applications.