TM10132 Titanium Alloy Bar, Ti Bar Grade 7, 14x14 mm

Titanium Alloy Bar, Ti Bar Grade 7, 14x14 mm Description

Titanium Alloy Bar, Ti Bar Grade 7, 14x14 mm is produced from a titanium alloy formulation enhanced with minute palladium additions for improved corrosion resistance. The consistent 14x14 mm dimension supports mechanical compatibility in industrial settings, while a density of ~4.5 g/cm³ and a melting point of 1668℃ ensure suitability for high-temperature environments. The mechanical properties, including tensile and yield strengths, contribute to predictable performance under load, meeting specific ASTM B348 standards.

Titanium Alloy Bar, Ti Bar Grade 7, 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 7, 14x14 mm Applications

1.       Industrial Processing
  - Used as a load-bearing component in high-temperature processing systems to achieve dimensional stability by leveraging its high melting point and defined mechanical strengths.

2.       Chemical Equipment
  - Applied as a corrosion-resistant element in piping and reactors to maintain operational integrity by utilising titanium’s chemical inertness.

3.       Aerospace Components
  - Utilised as fasteners or structural fittings in aerospace assemblies to attain weight reduction and high strength performance by exploiting its precise density and strength characteristics.

Titanium Alloy Bar, Ti Bar Grade 7, 14x14 mm Packing

The product is packaged in anti-static, moisture-resistant wrapping, then sealed in rigid, cushioned containers to prevent physical damage and contamination during transit. Storage instructions recommend a controlled, low-humidity, ambient temperature environment. Custom packaging options, such as tailored dimensions and reinforced containers, are available to meet specific handling requirements.

Frequently Asked Questions

Q1: How does the composition of titanium with palladium affect its operation in corrosive environments?
A1: The minute palladium addition enhances the alloy's corrosion resistance by stabilising the passive oxide layer, allowing the material to maintain structural integrity even in chemically aggressive environments.

Q2: What quality control methods confirm the dimensional accuracy of the 14x14 mm bar?
A2: Dimensional accuracy is verified using laser micrometry and coordinate measuring machines, ensuring each bar conforms to the ±0.1 mm tolerance specified by ASTM B348, thereby supporting consistent integration in precision systems.

Q3: Can adjustments be made to the mechanical properties of this titanium alloy bar for specialised applications?
A3: While the standard properties align with ASTM B348 requirements, slight modifications in the processing and heat treatment protocols can adjust mechanical traits. Discuss requirements with engineering teams for custom solutions.

Additional Information

Titanium alloys have long been recognised for their favourable strength-to-weight ratios and chemical inertness, making them essential in various industrial sectors. Their balanced mechanical properties allow for applications where both high temperature and corrosive conditions must be managed. The evolution of alloying and processing techniques has expanded the usage of titanium in structural and high-performance components.

Understanding the microstructural control and compositional precision in titanium alloys provides insight into their predictable performance in demanding applications. Researchers and engineers continue to explore the interplay between material science and mechanical design to further optimise these metals for evolving industrial challenges.