CM10799 Glass Ceramic Lithium Disilicate Block (Machinable)

Glass Ceramic Lithium Disilicate Block (Machinable) Description

Glass Ceramic Lithium Disilicate Block (Machinable) comprises primarily of SiO₂, Li₂O, and K₂O with a controlled density between 2.4 and 2.7 g/cm³. This material is designed for applications that require predictable machining behaviour and consistent structural properties. Its glass ceramic nature supports biocompatibility and precise fabrication, making it applicable in sectors where chemical inertness and stable density are critical.

Glass Ceramic Lithium Disilicate Block (Machinable) Characteristics

Chemical Composition

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

Glass Ceramic Lithium Disilicate Block (Machinable) Applications

Healthcare Applications
- Used as a dental framework in prosthetic components to achieve high biocompatibility by leveraging its inert glass ceramic properties.
- Applied as structural supports in medical imaging devices to achieve consistent performance through controlled density.

Industrial Applications
- Employed as a precision component in micro-machined systems to accomplish dimensional stability by utilising its machinable characteristics.
- Used as a substrate in advanced fabrication processes to secure accurate microstructural features due to its consistent lithium disilicate composition.

Glass Ceramic Lithium Disilicate Block (Machinable) Packing

The block is packaged in foam-lined, anti-static containers to minimise mechanical stress and avoid contamination. Protective wrapping and sealed barriers prevent moisture ingress. Storage conditions require a cool, dry environment to preserve material integrity. Customised packaging options, including compartmentalised inserts and specific labelling, are available to accommodate unique processing or shipping requirements.

Additional Information

Glass ceramics, including lithium disilicate systems, offer a unique balance of glassy and crystalline attributes that serve advanced biocompatible applications. Their fabrication typically involves controlled crystallisation processes that optimise mechanical stability and chemical inertness.

Understanding the interplay between elemental composition and physical properties is crucial for developing materials for precision applications. Manufacturers and researchers use advanced characterisation techniques—such as X-ray diffraction and spectroscopic analysis—to ensure these materials meet the performance demands of intricate machining and biomedical implementations.