TM10138 Titanium Alloy Bar, Ti Bar Grade 12, 14x14 mm

Titanium Alloy Bar, Ti Bar Grade 12, 14x14 mm Description

Titanium Alloy Bar, Ti Bar Grade 12, 14x14 mm conforms to ASTM B348 standards and features a 14x14 mm cross-section with a density of approximately 4.5 g/cm³. The alloy has a melting point near 1430℃ with tensile strength of at least 483 MPa and yield strength of 345 MPa, complemented by a minimum elongation of 18%. These specifications support its use in high-stress structural and load-bearing applications in engineering environments.

Titanium Alloy Bar, Ti Bar Grade 12, 14x14 mm 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, 14x14 mm Applications

1.       Industrial Applications
   - Used as a component in high-temperature processing equipment to achieve dimensional stability by leveraging its high melting point.
   - Applied as a structural element in precision machinery to maintain load-bearing performance by leveraging its defined tensile strength.

2.       Aerospace Applications
   - Utilised as a fastening or support component in aircraft systems to achieve weight reduction by leveraging its high strength-to-weight ratio.
   - Employed in structural frameworks where consistent mechanical properties are critical, ensuring durability under cyclic loading.

3.       Biomedical Applications
   - Used as a material for implantable devices in orthopedic systems to achieve biocompatibility and sufficient mechanical support by leveraging titanium’s inert characteristics.
   - Applied in surgical instruments to ensure longevity and resistance to sterilisation processes by utilising its controlled mechanical properties.

Titanium Alloy Bar, Ti Bar Grade 12, 14x14 mm Packing

The bars are packaged in corrosion-resistant, sealed containers to prevent surface contamination. Each unit is cushioned with foam inserts and stored in a dry, temperature-controlled environment. Anti-contamination measures include moisture barriers and inert gas purging during packaging. Custom packaging options such as compartmentalised trays and labelling are available to meet specific handling requirements.

Frequently Asked Questions

Q1: What quality control methods are applied during production?
A1: The production process includes calibrated metallographic analysis and dimensional verification to ensure consistency with ASTM B348 standards. These measures confirm the alloy’s mechanical properties and minimise variations in composition.

Q2: How does the alloy perform under cyclic loading conditions?
A2: The alloy’s defined tensile and yield strengths, along with its minimum elongation of 18%, support performance under repeated stress. However, cyclic fatigue tests are recommended for critical applications to assess long-term reliability.

Q3: What storage conditions are recommended for maintaining the material’s properties?
A3: The alloy should be stored in a dry, temperature-controlled environment with minimal exposure to corrosive agents. Sealed packaging and controlled humidity help maintain its surface integrity and mechanical performance.

Additional Information

Titanium alloys are widely studied for their balance of low density and high mechanical strength, making them suitable for demanding structural applications. Understanding the metallurgical properties, such as grain size and phase composition, is crucial for optimising manufacturing processes. Detailed analysis of these alloys helps in predicting their behaviour under various thermal and mechanical stresses, which is essential for precise engineering implementations.

Extensive research in materials science has advanced the processing techniques for titanium alloys, enhancing their performance in both conventional and innovative applications. This knowledge supports developments across industries from aerospace to biomedical engineering, where material consistency and performance are critical.