SI12432 Machinable Glass Ceramic Custom Part

Machinable Glass Ceramic Custom Part Description

The Machinable Glass Ceramic Custom Part is engineered as a silicate-based glass ceramic processed through controlled sintering and post-machining inspections. The material exhibits low thermal conductivity and significant compressive strength, making it suitable for structural support and thermal management. Its machinable nature supports the creation of complex geometries and tight tolerances. The defined microstructure promotes dimensional stability over a broad range of operating temperatures.

Machinable Glass Ceramic Custom Part Characteristics

Chemical Composition Wt%

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

Machinable Glass Ceramic Custom Part Applications

Electronics and Electrical
- Utilised as a structural insulator in power electronics to achieve thermal management by leveraging controlled thermal conductivity.
- Applied as a housing component in sensor modules to maintain dimensional stability under varying operating temperatures.

Industrial Processing
- Utilised as a support material in high-temperature furnace components to achieve longevity by leveraging its compressive strength.
- Applied as a custom fixture in machining systems to meet tight tolerances through its machinable properties.

Machinable Glass Ceramic Custom Part Packing

The component is packaged in antistatic, moisture-resistant containers with foam supports to minimise mechanical vibration and shock. It is stored under temperature-controlled conditions and marked with appropriate handling labels to avoid contamination. Custom packaging options, including vacuum sealing and compartmentalised designs, are available upon specification to meet specific transport and storage requirements.

Additional Information

Glass ceramics bridge the gap between conventional ceramics and glasses, offering a controlled crystalline microstructure achieved through precise sintering and crystallisation processes. This microstructure enables the material to be machined into complex shapes while maintaining structural integrity under thermal stress.

Stanford Advanced Materials (SAM) employs advanced quality verification techniques, such as scanning electron microscopy, to monitor microstructural properties. Understanding the interplay between processing conditions and material performance aids in the selection of glass ceramics for industrial components requiring dimensional stability and effective thermal management.