TM10127 Titanium Alloy Bar, Ti Bar Grade 7

Titanium Alloy Bar, Ti Bar Grade 7 Description

Titanium Alloy Bar, Ti Bar Grade 7 is a titanium alloy processed to offer defined mechanical properties including a density of approximately 4.5 g/cm³, a melting point of 1668°C, and controlled tensile and yield strengths. The alloy’s formulation supports applications where controlled deformation and strength are critical. Certification via tensile tests ensures that the material meets performance criteria in environments where weight savings and thermal resistance are essential.

Titanium Alloy Bar, Ti Bar Grade 7 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 Applications

1.       Industrial Equipment
- Used as a structural component in high-temperature processing equipment to achieve operational durability by leveraging its high melting point and mechanical strength.

2.       Chemical Processing Systems
- Applied as corrosion-resistant internals in chemical reactors to maintain system integrity by utilising its inert properties and controlled composition.

3.       Aerospace Components
- Serves as load-bearing elements in engine or structural assemblies to attain weight reduction while preserving strength by leveraging its low density and high yield strength.

Titanium Alloy Bar, Ti Bar Grade 7 Packing

Titanium Alloy Bar, Ti Bar Grade 7 is packaged with protective wrapping in moisture-resistant, anti-static materials and secured in padded, hermetically sealed containers. The packaging is designed to prevent contamination and mechanical damage during transit and storage. The material should be kept in a controlled, dry environment. Customised packing options, including labelling and compartmentalisation, are available to meet specific handling and storage requirements.

Frequently Asked Questions

Q1: What machining practices are recommended for Titanium Alloy Bar, Ti Bar Grade 7?
A1: Standard machining methods adjusted for titanium alloys are applicable. Cooling fluids and appropriate cutting speeds are recommended to manage heat and maintain surface integrity during machining operations.

Q2: How does the high melting point of 1668°C influence processing techniques?
A2: The elevated melting point permits usage in high-temperature applications but necessitates specialised welding and heat treatment procedures to avoid microstructural changes that could affect mechanical properties.

Q3: What storage conditions are advised to maintain material performance?
A3: The material should be stored in a temperature and humidity-controlled environment to prevent oxidation and surface contamination. Protective packaging further safeguards against mechanical damage and environmental exposure.

Additional Information

Titanium alloys are renowned for their unique combination of low density and high strength, making them suitable for applications where weight reduction and performance are critical. Their corrosion resistance and biocompatibility also contribute to their widespread use in industrial and biomedical fields.

The application of titanium alloys extends beyond structural components. Their excellent chemical stability and thermal performance make them valuable in environments subjected to high temperature and corrosive agents. Understanding the alloy’s behaviour under various conditions aids in optimising processing techniques and enhancing long-term performance in diverse industrial applications.