SS10705 420 Stainless Steel Sheet

420 Stainless Steel Sheet Description

420 Stainless Steel Sheet is a martensitic stainless steel characterized by a composition that includes approximately 12-14% chromium and 0.15-0.40% carbon. Manufactured in a flat sheet format, it undergoes controlled heat treatment to achieve targeted mechanical properties. The uniform structure and minimized impurity levels support precision machining and component fabrication, making it an appropriate choice for industrial applications that require both dimensional stability and adequate surface integrity.

420 Stainless Steel Sheet Characteristics

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

420 Stainless Steel Sheet Applications

Industrial Manufacturing
- Used as structural components in machinery to achieve durability by leveraging controlled heat treatment, which minimises performance variation and reduces maintenance intervals.

Precision Machining
- Applied as a blank for hardened parts in production equipment to ensure accurate dimensional stability by utilising the material's uniform microstructure and adjustable hardness.

Automotive Components
- Serves as a component in automotive systems to achieve effective wear resistance by utilising the material's strength-to-weight ratio, thereby enhancing operational efficiency.

420 Stainless Steel Sheet Packing

420 Stainless Steel Sheet is securely packaged in multilayered, anti-corrosive wrapping to prevent surface contamination and mechanical damage. The sheets are enclosed in rigid, moisture-resistant containers with desiccant inserts to inhibit corrosion. Storage guidelines recommend a cool, dry area with stable temperatures. Custom packaging solutions, including specialised labelling and cushioning, are available upon request for enhanced handling requirements.

Additional Information

Martensitic stainless steels enjoy extensive use in applications where a balance between corrosion resistance and mechanical strength is required. These materials are particularly notable for their heat-treatable characteristics, enabling specific tailoring of hardness and wear properties through controlled processing steps.

Understanding the influence of alloy composition and thermo-mechanical treatments is critical in advanced materials engineering. Such knowledge aids in optimising the performance of stainless steel sheets for diverse applications in industrial manufacturing and precision engineering contexts.