Description
Specifications Table
Product Material – Quartz crystal with metal casing
Grade – Laboratory/Research Grade
Application – Frequency generation, timing circuits, signal processing
Product Overview
The Study of Crystal Oscillator is a fundamental tool for exploring frequency stability and precision timing in electronic circuits. Engineered with a high-quality quartz crystal housed in a durable metal casing, this oscillator delivers exceptional accuracy for experiments requiring stable frequency generation. Its laboratory-grade construction ensures minimal frequency drift, making it ideal for applications where timing precision is critical. The oscillator’s design allows seamless integration into various circuit configurations, providing researchers and students with a reliable reference for signal processing tasks. Whether used in standalone experiments or as part of complex electronic setups, this crystal oscillator maintains consistent performance under varying environmental conditions. The compact and robust build ensures longevity, while its standardized output frequency simplifies calibration and testing procedures. Perfect for educational labs, research facilities, or DIY electronics projects, this oscillator serves as a cornerstone for understanding the principles of frequency control and signal stability.
FAQs
1. What is the typical frequency range of this crystal oscillator?
The frequency range depends on the specific crystal used, but common lab-grade oscillators operate between 1 MHz to 20 MHz. Check the product markings for exact specifications.
2. Can this oscillator be used with breadboards for circuit prototyping?
Yes, the crystal oscillator is compatible with breadboard setups, provided the connections are secure and the power supply matches the oscillator’s voltage requirements.
3. Are there alternatives to quartz-based oscillators for similar applications?
Alternatives include ceramic resonators and RC oscillators, but quartz crystals offer superior frequency stability and lower temperature drift, making them preferred for precision work.
4. How should this oscillator be stored to maintain accuracy?
Store in a dry, temperature-controlled environment away from direct sunlight or magnetic fields. Use anti-static packaging if storing long-term to prevent electrostatic damage.
5. Is this oscillator suitable for high-temperature experiments?
Standard quartz oscillators function reliably up to 70°C. For extreme temperatures, specialized high-temp oscillators with extended ranges are recommended.
