SS12429 AISI 1085 High Carbon Steel Ball

AISI 1085 High Carbon Steel Ball Description

AISI 1085 High Carbon Steel Ball is manufactured from high carbon steel containing approximately 0.85% carbon. This composition yields increased hardness and wear resistance critical for demanding mechanical applications. The sphere is produced with tight dimensional tolerances, ensuring consistent performance in systems where uniformity and load-bearing capacity are essential. Precision heat treatment secures a uniform microstructure, enhancing its overall mechanical properties.

AISI 1085 High Carbon Steel Ball Characteristics

Chemical Composition Wt%

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

AISI 1085 High Carbon Steel Ball Applications

1.       Industrial Machinery
   - Used as a rolling element in precision bearings to achieve reduced wear by utilising its high hardness and controlled carbon content.
   - Applied as a component in gear assemblies to maintain alignment and performance under repeated loading.

2.       Automotive Systems
   - Serves as a wear-resistant element in transmission components to ensure durability by utilising its enhanced microstructural properties.

3.       Manufacturing Equipment
   - Frequently implemented as a precision component in high-speed machining tools to secure dimensional stability by utilising its uniform heat treatment process.

AISI 1085 High Carbon Steel Ball Packing

AISI 1085 High Carbon Steel Balls are secured in moisture-resistant, sealed containers lined with an anti-corrosion coating and cushioned with shock-absorbent inserts. The packaging features clear handling instructions and is designed to minimise mechanical impact during transit. Store in a cool, dry area to prevent oxidation. Custom packaging options, including specialised labelling and inserts, are available on request.

Additional Information

High carbon steels such as AISI 1085 are integral to applications demanding high wear resistance and mechanical strength. The interplay between carbon content and controlled heat treatments optimises the steel's microstructure, which is essential for achieving predictable performance under stress.

Modern metallurgical advancements allow for tighter composition control and more consistent thermal processing. This leads to enhanced material properties that support the performance requirements of industrial and commercial systems, ensuring that components function as intended over prolonged usage periods.