XLH735033.300000I Crystals, Oscillators, Resonators

XLH735033.300000I Oscillators

XLH735033.300000I oscillators are a reliable source of high-frequency clocks that offer ultimate performance for a variety of applications. They are a low phase noise and high-stability frequency source available in a variety of models, including RoHS- and lead-free options. On-board temperature compensation, advanced parametric testing, and other support features give these oscillators a distinct advantage in the market.

Applications

XLH735033.300000I oscillators can be used in any environment requiring stable clock frequencies and low phase noise characteristics. Their popular applications include mobile and telecommunications, networking, test and measurement equipment, and military. Furthermore, these oscillators can be used as the clocks of CPUs and GPUS in automative, medical and industrial communication systems.

Operation Principle

XLH735033.300000I oscillators operate on a fundamental principle based on vibrating mechanical resonators. These resonators are damped or loaded piezoelectric crystals that vibrate at resonance frequency when an alternating electric field is applied to them. The frequency of this oscillation is determined by the natural resonance frequency of the crystals. This frequency is then converted into the desired output frequency using internal frequency dividers.

Features & Benefits

XLH735033.300000I oscillators feature the highest operating frequency and tightest frequency stability. They have low phase noise, high Q tuning factor and high vibration tolerance. Their micro-machined resonator structure makes them highly reliable and relatively immune to environmental noise. In addition, their cost-effectiveness makes them a popular choice for many designers.

Conclusion

XLH735033.300000I oscillators are reliable and versatile clock generation solutions that offer the highest performance for a variety of applications. They have the highest frequency range, lowest phase noise and tightest frequency stability. Their micro-machined resonator structure and on-board temperature compensation make them superior to traditional oscillators. Furthermore, their cost-effectiveness makes them a reliable and popular choice for many designers.