CY9530 Co Spinel Q Switch Crystal 5x5 mm T0=60%

Co Spinel Q Switch Crystal 5x5 mm T0=60% Description

Co Spinel Q Switch Crystal 5x5 mm T0=60% is a crystalline substrate featuring a cobalt spinel structure with a T0 orientation value of 60%. Its 5x5 mm dimensions ensure compatibility with standard processing equipment, while the controlled microstructure minimises defect density. This results in stable electrical switching characteristics and predictable performance in electronic circuits. Stanford Advanced Materials (SAM) utilises optimised synthesis techniques and surface analysis to maintain both compositional integrity and dimensional precision.

Co Spinel Q Switch Crystal 5x5 mm T0=60% Applications

Electronics Applications
- Used as a switching element substrate in RF circuits to achieve rapid signal modulation by leveraging its controlled T0 orientation.
- Applied as a stabilising layer in power management circuits to improve switching efficiency through a well-defined microstructure.

Industrial Applications
- Utilised as a sensor interface in control systems to enhance signal accuracy by capitalising on its stable crystallographic properties.
- Serves as a component in switching modules for automation systems to maintain operational consistency with its precisely controlled dimensions.

Co Spinel Q Switch Crystal 5x5 mm T0=60% Packing

The crystals are packaged in anti-static, foam-lined containers to prevent mechanical damage and contamination. Each unit is sealed with moisture barrier materials to ensure safe transit and long-term storage in a dry, temperature-controlled setting. Custom packaging options including compartmentalised inserts and secure labelling are available to meet specific handling requirements and inventory management protocols.

Frequently Asked Questions

Q1: What is the impact of the T0=60% orientation on switching performance?
A1: The T0=60% orientation indicates a defined crystallographic alignment that promotes directional conductivity and minimises leakage currents. This control is critical for enhancing switching speed and circuit stability in high-frequency electronic applications.

Q2: How is the microstructural uniformity of this crystal verified during production?
A2: Uniformity is confirmed through scanning electron microscopy and X-ray diffraction. These techniques assess grain boundaries and phase distribution, ensuring the crystal meets strict tolerances for dimensional accuracy and electrical performance.

Q3: What storage conditions are recommended to preserve the crystal's properties?
A3: The crystal should be stored in a temperature-controlled, low-humidity environment within anti-static packaging. Such conditions minimise the risk of mechanical stress and moisture-induced degradation, maintaining its microstructural integrity over time.

Additional Information

Cobalt spinel structures belong to a class of compounds characterised by their distinct cubic crystal lattice and stable electrical properties. The spinel arrangement provides a stable framework that is valuable for applications requiring controlled electron pathways and minimal defect interference.

Understanding the relationship between crystal orientation and electrical behaviour is essential in material science. Detailed processing and characterisation methods, such as those used by SAM, contribute to the development of substrates that meet stringent industrial requirements while supporting advancements in electronic switching technologies.