SS10701 316LVM Stainless Steel Wire UNS S31673

316LVM Stainless Steel Wire UNS S31673 Description

316LVM Stainless Steel Wire UNS S31673 is a low-carbon austenitic alloy processed via vacuum melting to achieve a refined grain structure. The controlled metallurgical process minimises impurities, resulting in consistent tensile and yield properties. Its adherence to ASTM F139 ensures that this wire meets established chemical and mechanical composition criteria, making it suitable for applications where controlled microstructure and corrosion resistance are essential.

316LVM Stainless Steel Wire 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 Wire UNS S31673 Applications

Industrial Applications
• Utilised as fastener material in high-temperature piping systems to achieve dimensional stability by leveraging its controlled tensile properties.
• Utilised as reinforcement elements in chemical processing equipment to achieve enhanced corrosion resistance by leveraging its low-carbon composition.

Healthcare Applications
• Applied as surgical wire in implantable devices to achieve biocompatibility by leveraging its refined grain structure and low carbon content.

316LVM Stainless Steel Wire UNS S31673 Packing

The wire is packaged in anti-static, moisture-resistant reels and sealed in corrosion-inhibiting packaging materials. The packing design includes protective liners and cushioning to minimise mechanical deformation during transit. Storage recommendations call for a temperature-controlled, dry environment to prevent oxidation. Custom packaging options are available to meet specific handling requirements and ensure anti-contamination measures.

Additional Information

Stainless steel materials such as 316LVM have undergone extensive metallurgical research to balance corrosion resistance with mechanical strength. Advances in vacuum melting and controlled alloying techniques have refined the microstructure of these materials, leading to enhanced performance in both static and dynamic environments.

Understanding the phase transformations and grain size distribution in austenitic stainless steels facilitates their integration into applications ranging from high-demand industrial systems to specialised medical devices. Continuous evaluation through analytical techniques, such as scanning electron microscopy and tensile testing, ensures these materials meet the evolving requirements of modern engineering applications.