SS10698 316LVM Stainless Steel Rod UNS S31673

316LVM Stainless Steel Rod UNS S31673 Description

316LVM Stainless Steel Rod UNS S31673 is produced from a low carbon stainless steel alloy processed under controlled conditions to yield a uniform microstructure. The material's composition minimises carbide precipitation, ensuring improved weldability and consistent mechanical properties. This rod is suitable for applications that require precise dimensional stability and enhanced corrosion resistance, particularly in environments where extended service life is critical.

316LVM Stainless Steel Rod UNS S31673 Characteristics

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

Chemical Composition

316LVM Stainless Steel Rod UNS S31673 Applications

Biomedical Applications
- Used as implant components in medical devices to reduce ion release by leveraging its low carbon content and controlled microstructure.

Industrial Manufacturing
- Applied as precision rollers in processing equipment to combat wear by utilising its enhanced corrosion resistance.
- Serves as a heat exchanger component to reduce scaling through consistent thermal properties.

Precision Machining
- Used as turning components in CNC machinery to achieve stable dimensional tolerances by capitalising on its uniform metallurgical characteristics.

316LVM Stainless Steel Rod UNS S31673 Packing

The stainless steel rod is packaged in an anti-corrosion wrap with foam inserts to limit mechanical stress during transit. It is placed in a sturdy container to prevent contamination and damage. Storage is recommended in a clean, dry, temperature-stable environment. Custom packaging configurations are available for varying order quantities and specific handling requirements.

Additional Information

Stainless steel alloys such as 316LVM are extensively studied for their resistance to pitting and crevice corrosion in challenging environments. The controlled melting processes help minimise impurities, yielding consistent mechanical properties that are critical for applications requiring long-term structural integrity.

Materials processed under ASTM F138 specifications are essential in advanced engineering applications. Detailed metallurgical analysis ensures that the microstructure aligns with the demands of sectors such as biomedical devices and precision manufacturing, providing a deeper understanding of performance under operational stresses.