CM10800 Glass Ceramic Lithium Disilicate Press Ingot

Glass Ceramic Lithium Disilicate Press Ingot Description

Glass Ceramic Lithium Disilicate Press Ingot, also known as Lithium Disilicate Glass Ceramic, is produced using a controlled crystallisation process. Its composition based on SiO₂, Li₂O, and K₂O provides thermal and mechanical attributes suitable for composite applications in biomedical devices and precision engineering. The ingot's uniform microstructure enhances chemical inertness and minimises interface defect formation, providing a stable substrate for further composite processing.

Glass Ceramic Lithium Disilicate Press Ingot Characteristics

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

Glass Ceramic Lithium Disilicate Press Ingot Applications

Electronics and Medical Devices
- Used as a base for biocompatible implant coatings to achieve improved tissue integration by utilising the ingot's chemical inertness.

Industrial Applications
- Applied as a structural component in high-temperature composite processing to achieve dimensional stability under thermal cycling due to controlled crystallisation.

Healthcare Applications
- Serves as a dental restoration material in lab-fabricated frameworks to achieve enhanced aesthetic and mechanical performance by employing its uniform microstructure.

Glass Ceramic Lithium Disilicate Press Ingot Packing

The ingot is packaged in a custom foam-lined, anti-static container to prevent mechanical damage and particulate contamination. A sealed, moisture-resistant bag encases the ingot to preserve its chemical stability during transit. Recommended storage is in a temperature-controlled, low-humidity environment. Custom packaging options—including compartmentalisation and labelling—are available for bulk orders.

Additional Information

Glass ceramic materials combine aspects of both ceramics and glasses, providing benefits such as low thermal expansion and chemical inertness. Lithium disilicate ceramics, in particular, have garnered attention in biocompatible and composite applications due to their controlled crystalline structure, which facilitates improved integration with polymer matrices.

The production of these ingots requires precise control over temperature and pressure to ensure a homogeneous microstructure. Understanding the relationship between processing parameters and microstructural features optimises performance and adapts the material for diverse industrial, biomedical, and precision engineering applications.