5032S21308BMDAHEGNE-CT

Crystals Overview

The HKC 5032S21308BMDAHEGNE-CT is a fundamental mode quartz crystal oscillator housed in a 2-SMD, No Lead package. It operates at a nominal frequency of 13.081 MHz with a load capacitance of 16pF and an equivalent series resistance of 150 Ohms. The component supports a temperature range of -40°C to +85°C and offers a frequency tolerance of ±25ppm.

Crystals Feature Summary

• Fundamental oscillation mode operation
• Lead-free RoHS compliant construction
• Standardized surface-mount form factor

Crystals Applications

• General electronic circuit timing references
• Embedded system clock generation
• Consumer electronics signal processing

Crystals Procurement Notes

Verify the specific manufacturer designation for HKC components, as this acronym may refer to multiple distinct suppliers in the passive component market. Confirm that the 2-SMD No Lead package matches your PCB footprint requirements. Ensure the 150 Ohm ESR specification aligns with your oscillator circuit design constraints before finalizing procurement orders.

Crystals Selection Notes

Select this component when a stable 13.081 MHz reference is required within industrial or commercial temperature ranges. The 16pF load capacitance dictates compatibility with specific microcontroller or logic gate input configurations. Evaluate the ±25ppm stability against your system's jitter sensitivity requirements to ensure reliable long-term performance.

Crystals Part Context

This part belongs to the family of surface-mount quartz crystals designed for compact electronic assemblies. The 2-SMD No Lead package facilitates automated pick-and-place manufacturing processes. These components serve as essential timing elements in digital circuits where precise frequency control is critical for data synchronization.

Crystals Replacement Considerations

The 5032S21308BMDAHEGNE-TR variant shares identical electrical specifications but utilizes tape-and-reel packaging instead of cut tape. Verify package compatibility and handling procedures when substituting between these two supply formats.