18QHTF21-16.588-OE

Oscillators Overview

The 18QHTF21-16.588-OE is a standard crystal oscillator (XO) manufactured by Mercury Electronics Ind. Co. Ltd, operating at a frequency of 16.588 MHz. It utilizes LVCMOS output logic and functions with a 1.8V supply voltage. The device features an enable/disable control pin for power management flexibility. It is housed in a compact 4-SMD, No Lead package, designed for surface-mount applications requiring precise timing signals.

Oscillators Feature Summary

• LVCMOS output interface for digital logic compatibility
• Integrated enable/disable functionality for power optimization
• Compact 4-SMD no-lead surface mount package design

Oscillators Applications

• Timing and clock signal generation in electronic devices
• Embedded systems requiring precise frequency references
• Consumer electronics utilizing low-voltage logic interfaces

Oscillators Procurement Notes

Verify the specific ordering suffix against the manufacturer's current datasheet to ensure compatibility with required voltage levels and load conditions. Confirm that the 4-SMD no-lead package dimensions align with your PCB footprint requirements before finalizing procurement orders.

Oscillators Selection Notes

Select this component when a 16.588 MHz reference is required within a 1.8V logic environment. Ensure the application supports LVCMOS signaling standards. Consider the enable pin utility if dynamic power saving during idle states is a system requirement.

Oscillators Part Context

This part belongs to Mercury's QuikXO series, which provides fast-delivery CMOS output clock oscillators. The series includes both standard and custom frequency options built to order, catering to industries needing reliable timing solutions from a pioneer in quartz crystal manufacturing.

Oscillators Replacement Considerations

Check for direct substitutes within the same QuikXO family or other 1.8V LVCMOS oscillators with identical 4-SMD no-lead footprints. Verify frequency tolerance and phase noise specifications match original design constraints.