TM10789 Titanium Alloy Bar Ti-15Mo Grade 21 UNS R58210

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

Titanium Alloy Bar Ti-15Mo Grade 21 UNS R58210 is a titanium alloy with an approximate 15% molybdenum content, formulated for engineering applications requiring high strength and corrosion resistance. Its composition supports balanced mechanical performance, making it suitable for components where precision and predictable material behaviour are essential. The bar form factor facilitates machining and dimensional stability in industrial settings.

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

1.       Industrial Structures
- Used as a load-bearing component in support frameworks to achieve enhanced structural integrity by utilising its controlled alloy composition.

2.       Chemical Processing Equipment
- Applied as a part in pump housings to achieve improved resistance against corrosive environments by utilising its inherent corrosion-resistant properties.

3.       Precision Instrumentation
- Serves as a machined component in sensor housings to achieve dimensional stability by utilising its uniform microstructure and mechanical balance.

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

The titanium alloy bar is packaged using anti-abrasion and moisture-resistant materials to preserve surface integrity during transit and storage. It is stored under controlled temperature and low-humidity conditions to minimise oxidation. Protective wrapping and sturdy outer packaging reduce mechanical damage, and customisation options are available to accommodate specific handling and logistical requirements.

Additional Information

Titanium alloys have been extensively studied due to their advantageous strength-to-weight ratio and inherent resistance to corrosion. These characteristics make them suitable for applications in industries where mechanical performance and durability are critical. Understanding the effects of alloying elements such as molybdenum is vital for refining performance parameters and ensuring that material behaviour meets engineering demands.

Research in titanium alloy metallurgy continues to advance processing techniques, leading to improved control over microstructure and mechanical properties. This progress supports high-performance applications in industrial, aerospace, and precision instrumentation sectors, reinforcing the material's role in modern engineering solutions.