(Discontinued) NC1234 Incoloy 800 (Alloy 800, UNS N08800) Wire

Alloy 800 Wire UNS N08800 Description

Alloy 800 Wire UNS N08800 is a nickel-chromium-iron alloy wire produced through conventional melt processing that meets UNS N08800 specifications. The material's controlled chemical composition stabilises its microstructure, making it effective for applications requiring high-temperature stability and corrosion resistance. Its standardised form and composition allow integration into systems where dimensional tolerances and thermal performance are critical for operational efficiency.

Alloy 800 Wire UNS N08800 Characteristics

Chemical Composition Wt%

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

Alloy 800 Wire UNS N08800 Applications

Industrial Processing
- Used as a high-temperature component in furnace assemblies to achieve thermal stability by leveraging its controlled composition.
- Applied as a structural element in heat exchangers to maintain dimensional accuracy under thermal cycling by utilising its microstructural uniformity.

Chemical Processing
- Utilised as a conduit in corrosive environments to achieve extended service life by leveraging its inherent chemical inertness.
- Serves as a component in reactor vessels to mitigate oxidation, thus sustaining performance during continuous operation.

Alloy 800 Wire UNS N08800 Packing

Alloy 800 Wire UNS N08800 is packaged in moisture barrier bags accompanied by inert gas flushing and sealed within sturdy fibreboard boxes. The packaging minimises oxidation risks during transit and protects against environmental contaminants. Storage should be in a dry, temperature-controlled environment to preserve material integrity. Custom packaging, including specific dimensions and labelling, is available to suit project requirements.

Additional Information

Nickel-based alloys, such as Alloy 800 Wire UNS N08800, are widely utilised in industrial environments due to their chemical stability and resistance to oxidation at elevated temperatures. Their performance depends on precise alloying and processing conditions, which are critical for maintaining material properties over extended operational periods.

The study of microstructural evolution in such alloys provides insights into thermal stability and mechanical performance. This information supports the development of materials that function effectively under harsh conditions, contributing to improved system reliability in chemical and heat-intensive applications.