AC10024 Alumina Ceramic Disc, Aluminium Oxide Disc, Al2O3 Disc 99%, Dia. 51 mm

Alumina Ceramic Disc, Aluminium Oxide Disc, Al2O3 Disc 99%, Dia. 51 mm Description

Alumina Ceramic Disc, Aluminium Oxide Disc, Al2O3 Disc 99%, Dia. 51 mm is manufactured from high-purity Al2O3 using advanced sintering techniques. Its 51 mm diameter provides a standard size for integration with processing equipment. The specified flexural and compressive strengths ensure structural stability, while its thermal conductivity and high volume resistivity support consistent performance in environments subject to thermal and electrical stress.

Alumina Ceramic Disc, Aluminium Oxide Disc, Al2O3 Disc 99%, Dia. 51 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. 51 mm Applications

Electronics
- Used as an insulating substrate in high-voltage devices to achieve effective thermal management by leveraging its high volume resistivity and stable thermal properties.

Industrial
- Applied as a component in high-temperature furnace systems to withstand mechanical stress and thermal cycling by utilising its high compressive and flexural strengths.

Automotive
- Serves as a barrier in engine components to manage heat distribution and mechanical loads by employing its verified material consistency and thermal conductivity.

Alumina Ceramic Disc, Aluminium Oxide Disc, Al2O3 Disc 99%, Dia. 51 mm Packing

The discs are packaged in anti-static containers with foam supports and sealed in moisture barrier bags to minimise mechanical shock and contamination. They are stored in a temperature-controlled, dry environment to maintain material integrity. Additional customisation for packing configuration and labelling is available on request to suit specific storage and transport requirements.

Additional Information

Alumina ceramics are known for their high-temperature stability and mechanical strength. Their microstructure is engineered during sintering to achieve a dense, uniform material composition, which is critical for performance in thermal cycling and load-bearing applications. The intrinsic electrical insulation properties also make them suitable for environments where dielectric performance is critical.

Understanding the behaviour of ceramic materials under varying operational loads is essential in materials science. Detailed knowledge of properties such as thermal conductivity and mechanical strengths aids in optimising these ceramics for industrial uses. Research in this field continues to refine processing techniques to further enhance material performance in practical applications.