CM9620 Piezoelectric Ceramic Disc PZT Disc Dia. 10 mm x 1 mm

Piezoelectric Ceramic Disc PZT Disc Dia. 10 mm x 1 mm Description

The Piezoelectric Ceramic Disc is fabricated using lead zirconate titanate (Pb[Zr,Ti]O₃) and measures exactly 10 mm in diameter and 1 mm in thickness. This dimension facilitates integration into standard electronic assemblies. The disc structure provides a measurable piezoelectric effect under mechanical stress, making it suitable for applications in sensor technology and actuator designs. Its ceramic composition ensures that the electrical response is consistent under cyclic loads and temperature variations found in industrial environments.

Piezoelectric Ceramic Disc PZT Disc Dia. 10 mm x 1 mm Applications

1.       Electronics
   - Used as a sensor element in vibration detection systems to monitor machinery health by converting mechanical strain into electrical signals.
   - Applied as a transducer in micro-electromechanical systems to achieve precise displacement measurement by exploiting the piezoelectric effect.

2.       Industrial
   - Serves as an actuator in precision positioning systems to modify movement in response to external forces, thereby enhancing control accuracy.
   - Used in pressure monitoring devices to detect minute changes in pressure by converting mechanical input into electrical output, thus aiding process control.

3.       Healthcare
   - Used as a component in ultrasound transducers to generate acoustic waves for diagnostic imaging by utilising its piezoelectric properties.
   - Applied in medical sensor assemblies to detect biomechanical strains, ensuring accurate data acquisition in patient monitoring systems.

Piezoelectric Ceramic Disc PZT Disc Dia. 10 mm x 1 mm Packing

Piezoelectric Ceramic Discs are individually packaged in custom-moulded foam inserts inside antistatic bags. The packaging helps shield each disc from mechanical shocks and environmental contaminants during transit and storage. They are stored in a temperature-controlled environment to maintain material integrity. Customised packaging solutions, such as moisture-barrier bags or compartmentalised trays, are available upon request to suit specific handling protocols.

Frequently Asked Questions

Q1: How does the disc dimension affect its application in sensor systems?
A1: The 10 mm diameter by 1 mm thickness dimensions facilitate integration with standard sensor circuitry, ensuring compatibility with routine electronic assemblies while enabling accurate mechanical-electrical transduction.

Q2: What testing methods are employed to verify the piezoelectric properties?
A2: The production process involves systematic quality checks including scanning electron microscopy (SEM) and electrical performance testing to confirm the consistency of the piezoelectric response and minimise microstructural variations.

Q3: Can the ceramic disc be customised for varying application requirements?
A3: Customisation options regarding dimension tolerances and sintering parameters are available. These adjustments help optimise the piezoelectric response according to the specific operational conditions of different sensor and actuator applications.

Additional Information

Piezoelectric ceramics, particularly lead zirconate titanate, are widely studied for their ability to convert mechanical stress into electrical energy. The underlying mechanisms rely on crystallographic domain reorientation under applied forces. This property is essential for devices in sensing and actuation, where minimal conversion losses are critical. Advances in ceramic processing have enabled tighter control over grain size and phase purity, which directly correlates with power output consistency.

Further research in ceramic materials is focused on improving the electromechanical coupling by refining sintering techniques and doping strategies. Such improvements are instrumental in lowering operational thresholds and enhancing the durability of piezoelectric components in harsh environments, ensuring that modern electronic systems maintain functional integrity under variable conditions.