AC10026 Alumina Ceramic Disc, Aluminium Oxide Disc, Al2O3 Disc 99%, Dia. 102 mm

Alumina Ceramic Disc, Aluminium Oxide Disc, Al2O3 Disc 99%, Dia. 102 mm Description

Alumina Ceramic Disc, Aluminium Oxide Disc, Al2O3 Disc 99%, Dia. 102 mm is fabricated from high-purity Al2O3, ensuring chemical inertness and mechanical strength. The 102 mm diameter and controlled density of 3.85 g/cm³ support applications requiring stringent dimensional control. The material's high thermal conductivity and resistivity make it suitable for environments requiring effective heat management and electrical insulation.

Alumina Ceramic Disc, Aluminium Oxide Disc, Al2O3 Disc 99%, Dia. 102 mm Characteristics

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

Alumina Ceramic Disc, Aluminium Oxide Disc, Al2O3 Disc 99%, Dia. 102 mm Applications

Electronics
- Used as an insulating component in high-voltage circuit assemblies to achieve enhanced dielectric isolation by leveraging its high volume resistivity. 

Industrial
- Applied as a structural element in high-temperature furnace linings to achieve dimensional stability by leveraging its high operating temperature tolerance and thermal conductivity. 

Automotive
- Used as a wear-resistant insulator in sensor housings to achieve consistent performance by leveraging its chemical inertness and mechanical strength.

Alumina Ceramic Disc, Aluminium Oxide Disc, Al2O3 Disc 99%, Dia. 102 mm Packing

The discs are packaged in cushioned, anti-static carriers and sealed within moisture-barrier bags. Hard plastic inserts secure each disc during transit, reducing vibration and impact. Storage conditions require a cool, dry environment to minimise contamination risks. Custom packaging options, including size-specific inserts and labelling, are available to meet specific handling and storage protocols.

Additional Information

Alumina ceramics have been extensively studied due to their favourable properties such as chemical inertness, high wear resistance, and thermal stability. These attributes make alumina a common material choice in high-demand applications where precise performance is critical. Research continues to optimise the processing conditions to further enhance microstructural uniformity and performance in industrial environments.

In materials science, understanding the interactions between microstructural features and macroscopic properties is essential. Alumina's performance in various applications has made it a subject of ongoing investigation, especially in sectors that require components capable of withstanding high thermal and mechanical stress.