TM10133 Titanium Alloy Bar, Ti Bar Grade 12

Titanium Alloy Bar, Ti Bar Grade 12 Description

Titanium Alloy Bar, Ti Bar Grade 12 is produced to conform with ASTM B348 standards and exhibits engineered mechanical properties crucial for high-performance applications. With a density of approximately 4.5 g/cm³ and a melting point near 1430℃, the material supports demanding thermal conditions. Its tensile and yield strengths ensure load-bearing capacity, while a minimum of 18% elongation provides necessary ductility for forming and machining operations.

Titanium Alloy Bar, Ti Bar Grade 12 Characteristics

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

Titanium Alloy Bar, Ti Bar Grade 12 Applications

Industrial Processing
- Used as a key structural component in high-temperature processing equipment to maintain shape stability by leveraging its high melting point and strength.

Aerospace Fabrication
- Applied as load-bearing elements in fuel system assemblies to address weight-sensitive designs by utilising its low density and high mechanical performance.

Medical Device Manufacturing
- Serves as components in surgical instruments to achieve corrosion resistance and durability by capitalising on titanium’s chemical stability and controlled ductility.

Titanium Alloy Bar, Ti Bar Grade 12 Packing

The product is packaged in corrosion-resistant, sealed metal containers with protective inner linings to prevent surface contamination. Each bar is wrapped in anti-static materials and cushioned to mitigate mechanical impacts during transport. Storage instructions recommend a dry, temperature-controlled environment. Custom packaging options, including inert gas blanketing and specialised labelling, are available per client specifications.

Frequently Asked Questions

Q1: How is the dimensional tolerance maintained for customised Titanium bars?
A1: Dimensional tolerance is controlled through precision machining and laser micrometry inspections. Each batch is measured to comply with ASTM B348 standards, ensuring consistency and suitability for further fabrication processes.

Q2: What precautions should be taken during welding of this titanium alloy?
A2: Welding requires an inert atmosphere to prevent contamination and ensure proper fusion. Pre-weld cleaning and post-weld heat treatment are recommended to minimise the risk of thermal distortion and maintain mechanical integrity.

Q3: How do the alloy’s properties enhance performance in high-temperature applications?
A3: The alloy’s high melting point coupled with substantial tensile and yield strengths supports structural integrity under elevated temperatures. This performance is critical in environments where thermal stresses demand sustained material performance.

Additional Information

Titanium alloys are widely used in applications that demand a balance between low density and high strength. Their resistance to oxidation and corrosion makes them suitable for environments exposed to aggressive chemicals or thermal cycling. Material processing techniques, such as annealing and precision machining, are essential in optimising the alloy’s microstructure and mechanical performance. This understanding is crucial for engineers focused on applications in aerospace, industrial processing, and medical device manufacturing.

In the broader context of materials science, titanium alloys represent a significant category where structural performance and chemical stability intersect. Advances in alloy formulation and quality control processes continue to enhance their applicability across various industries, providing engineers with materials that meet stringent operational demands.