1575H-33.6864K33DTSK

Overview

The 1575H-33.6864K33DTSK is a standard crystal oscillator manufactured by Suzhou Hangjing Elec&Tech Co., Ltd. It operates at a frequency of 33.6864 MHz and utilizes HCMOS output logic. The device functions with a supply voltage of 3.3V and features an enable/disable control pin for power management. It is housed in a compact 4-SMD, no-lead package suitable for surface mount applications.

Feature Summary

• HCMOS output interface for digital signal compatibility
• Integrated enable/disable functionality for power optimization
• Standard XO design for reliable clock generation

Applications

• Computing systems requiring precise timing references
• Communication equipment utilizing standard clock frequencies
• Industrial devices needing stable oscillation sources

Procurement Notes

Verify the specific suffix 'K' against official documentation to confirm tolerance and temperature range specifications. Ensure the 4-SMD no-lead package dimensions match the target PCB footprint. Confirm that the HCMOS voltage levels align with the receiving circuit's input requirements before finalizing procurement orders.

Selection Notes

Select this component when a 33.6864 MHz clock source is required with low power consumption capabilities. The enable pin allows for system-level power management strategies. Verify that the ±10ppm stability meets the application's jitter and phase noise requirements compared to other available options in the series.

Part Context

This part belongs to the 1575H series of standard crystal oscillators from Suzhou Hangjing. The series offers various frequencies and packages, providing solutions for computing, communication, and industrial applications. The manufacturer specializes in quartz frequency controlling units established in 2014.

Replacement Considerations

Check for direct substitutes within the 1575H series such as 1575H-33.6864K33DTSL if pinout compatibility is maintained. Verify that alternative parts maintain the same 3.3V supply and HCMOS output characteristics to ensure functional equivalence without redesign.