TM10110 Titanium Bar, Ti Bar Grade 1, 10x10 mm

Titanium Bar, Ti Bar Grade 1, 10x10 mm Description

Titanium Bar, Ti Bar Grade 1, 10x10 mm is fabricated from commercially pure titanium. The 10x10 mm size ensures compatibility with standard machining processes, while the density of ~4.5 g/cm³ contributes to its low weight. A melting point of 1668℃ enables stability under elevated temperatures. With tensile and yield strengths of ≥240 MPa and ≥170 MPa respectively, and a minimum elongation of 24%, the material offers predictable deformation behaviour ideal for precision engineering applications.

Titanium Bar, Ti Bar Grade 1, 10x10 mm Applications

Industrial Applications
- Used as structural supports in precision machinery to achieve dimensional stability by leveraging the high melting point under thermal stress.
- Applied as load-bearing components in manufacturing equipment to secure predictable deformation through specified tensile and yield strength.

Aerospace Components
- Employed in engine casings to manage thermal expansion by utilising the inherent heat resistance of titanium.
- Used as fastener elements in airframe assemblies to attain lightweight performance while meeting strict mechanical strength requirements.

Titanium Bar, Ti Bar Grade 1, 10x10 mm Packing

Titanium Bar, Ti Bar Grade 1, 10x10 mm is securely packaged using anti-corrosive wraps and high-density foam inserts. The bars are placed in moisture-proof containers to prevent contamination and physical damage during transit and storage. It is recommended to store the product in a dry, temperature-controlled environment. Custom packaging solutions, including specialised labelling and compartmentalisation, are available upon request to accommodate specific logistics requirements.

Frequently Asked Questions

Q1: How does the material composition affect performance in high-temperature environments?
A1: The minimal alloying levels in Ti Grade 1 preserve the intrinsic properties of titanium, maintaining stability at elevated temperatures, which supports applications where sustained thermal exposure is common.

Q2: What quality control methods are used to verify dimensional accuracy?
A2: Stanford Advanced Materials applies X-ray diffraction analysis and mechanical testing during production. These techniques ensure that any deviation from specified tolerances is identified and corrected through equipment recalibration.

Q3: Which machining processes are best suited for this titanium bar?
A3: Standard milling and turning operations work well with this grade of titanium. Adjustments in tooling and cutting speeds are recommended to accommodate the work-hardening behaviour characteristic of titanium during machining.

Additional Information

Titanium metals combine low density with high strength, making them valuable in precision engineering and industrial applications. Their excellent corrosion resistance and biocompatibility expand their usage in various sectors, including aerospace and medical devices. These attributes stem from the inherent properties of commercially pure titanium.

Advances in processing techniques, such as precision milling and controlled surface treatments, have enhanced the material’s consistency and cost-efficiency. Ongoing research into titanium and its alloys continues to refine their performance, supporting innovative designs and complex engineering challenges in modern industrial applications.