The CSTCG20M0V51-R0 is a ceramic resonator manufactured by Murata Electronics North America. Ceramic resonators are passive electronic components utilized to generate a stable clock frequency in electronic circuits. They provide a cost-effective and compact alternative to quartz crystals, rendering them appropriate for numerous applications where precise frequency control is needed but ultra-high accuracy is not essential.
Applications
- Microcontroller clock circuits
- Timing circuits for general electronic devices
- Clock signal generation in consumer electronics
- Industrial control and automation
- Wireless communication devices
Features
- Compact size
- Stable oscillation frequency of 20.00 MHz
- Cost-effective compared to crystal oscillators
- RoHS compliant
- Surface Mount Device (SMD) package
Benefits
- Simplified circuit design
- Reduced component count on PCBs
- Lower manufacturing costs
- Reliable performance in a wide range of operating conditions
- Easy integration into existing electronic systems
Additional Details
The CSTCG20M0V51-R0 operates at a frequency of 20.00 MHz. This ceramic resonator is designed for applications requiring a relatively higher clock frequency. It is typically made from piezoelectric ceramic materials, which exhibit resonant behavior at specific frequencies. The resonator's performance is influenced by factors such as temperature, voltage, and load capacitance. External components, such as load capacitors, are often required to optimize the resonator's oscillation characteristics and ensure stable operation.
Murata's ceramic resonators are popular due to their reliability and cost-effectiveness. The CSTCG20M0V51-R0 is suitable for use in various electronic devices where a 20.00 MHz clock signal is needed. When designing with ceramic resonators, it is crucial to follow the manufacturer's recommendations for component selection and PCB layout. The datasheet should be consulted for detailed specifications and application notes. Proper grounding and decoupling techniques are essential to minimize noise and ensure stable oscillation.