TM10784 Titanium Alloy Rod Ti-15Mo Grade 21 UNS R58210

Titanium Alloy Rod Ti-15Mo Grade 21 UNS R58210 Description

Titanium Alloy Rod Ti-15Mo Grade 21 UNS R58210 is an alloy developed using titanium with an addition of 15% molybdenum, conforming to UNS R58210 standards. Its formulation is tailored for demanding environments where high-temperature strength and creep resistance are required. The rod form is produced with controlled forging and heat treatment to ensure a stable beta microstructure, supporting precise machining and dimensional adherence in industrial applications.

Titanium Alloy Rod Ti-15Mo Grade 21 UNS R58210 Characteristics

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

Titanium Alloy Rod Ti-15Mo Grade 21 UNS R58210 Applications

Industrial Machinery
- Used as a structural component in high-pressure systems to achieve dimensional stability by leveraging its controlled beta-phase microstructure.
- Applied as a fastener rod in precision machines to ensure minimal thermal expansion during operation.

Aerospace Components
- Serves as a load-bearing element in turbine assemblies to achieve improved creep resistance under elevated temperatures by utilising its alloy composition.

Chemical Processing Equipment
- Employed as a reactor internals component to achieve enhanced corrosion resistance in aggressive chemical environments by capitalising on its inert composition.

Titanium Alloy Rod Ti-15Mo Grade 21 UNS R58210 Packing

The product is securely packaged in moisture-resistant, anti-static packaging to prevent surface contamination during transit. Each rod is encased in protective foil and supported by custom-moulded inserts within a sturdy cardboard box. Storage conditions should maintain a controlled temperature and low humidity environment. Custom packaging solutions are available upon request to meet specific handling requirements.

Additional Information

Titanium alloys have broad usage in industrial and engineering sectors due to their high strength-to-weight ratio and favourable corrosion resistance. Their microstructural control, achieved through precise alloying and thermo-mechanical processing, is essential for performance in high-temperature and high-stress applications.

Understanding the balance between alloy composition and mechanical properties is key to optimising titanium products for applications ranging from aerospace to chemical processing. Continued advancements in material science are expanding the adaptability and efficiency of these alloys in increasingly demanding environments.