SS10697 316LVM Stainless Steel Bar UNS S31673

316LVM Stainless Steel Bar UNS S31673 Description

316LVM Stainless Steel Bar UNS S31673 is a vacuum-melted stainless steel variant with a low-carbon content and optimised alloy composition. Its controlled microstructure minimises carbide precipitation, offering enhanced corrosion resistance and mechanical performance. These characteristics make the bar suitable for demanding biomedical and industrial engineering processes where uniformity and precise fabrication are essential.

316LVM Stainless Steel Bar 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 Bar UNS S31673 Applications

1.       Medical Applications
   - Used as implantable device components in surgical systems to achieve biocompatibility by leveraging its low-carbon composition.
   - Applied as elements in medical equipment housings to attain reduced contamination risk by utilising its smooth surface finish.

2.       Engineering Applications
   - Used as machining blanks in instrument panels to achieve dimensional stability by leveraging its uniform grain structure.
   - Applied as components in high-temperature systems to secure structural integrity by utilising its controlled melting profile.

316LVM Stainless Steel Bar UNS S31673 Packing

The 316LVM Stainless Steel Bar is packaged in clean, non-reactive protective wraps and sealed in moisture-resistant containers. The packaging integrates anti-corrosion barriers and shock-absorbing materials to guard against surface damage during transit. It is recommended that the product be stored in a temperature-controlled, dry environment to maintain material integrity. Custom packaging options are available to meet specialised shipping requirements.

Additional Information

316LVM stainless steel, achieved through advanced vacuum melting and controlled cooling processes, is extensively analysed to ensure structural uniformity and minimal impurity levels. Its low-carbon composition minimises carbide formation, an important factor for both corrosion resistance and mechanical performance in critical environments. This material benefits from comprehensive non-destructive testing, ensuring that only bars meeting strict metallurgical criteria are shipped.

Recent advancements in metallurgical processing have enhanced the overall performance of austenitic stainless steels. Ongoing research focuses on optimising heat treatment and refining alloy compositions, contributing to broader applications in biomedical devices and precision engineering, where material consistency is crucial for operational success.