SXT21420BA17-24.000M

Crystals Overview

The SXT21420BA17-24.000M is a surface-mount MHz crystal manufactured by Suntsu Electronics, Inc. It operates at a nominal frequency of 24 MHz with a load capacitance of 20 pF. The component exhibits a frequency stability of ±30 ppm and a frequency tolerance of ±30 ppm. Its equivalent series resistance (ESR) is specified as 120 Ohms. Designed for base mode operation, the device functions within a temperature range of -10°C to +70°C. It utilizes a 4-SMD, no lead package configuration.

Crystals Feature Summary

• Provides precise timing signals via base mode quartz resonance
• Ensures signal integrity through defined load capacitance matching
• Supports reliable operation in industrial temperature environments

Crystals Applications

• General-purpose digital circuit timing
• Microcontroller clock sources
• Communication interface synchronization

Crystals Procurement Notes

Verify the specific suffix 'BA17' against official Suntsu documentation to confirm exact electrical tolerances and thermal specifications. Ensure the 4-SMD footprint matches the target PCB layout. Confirm that the ±30 ppm stability meets system requirements before finalizing procurement orders.

Crystals Selection Notes

Select this component when a 24 MHz base frequency is required with moderate stability. The 20 pF load capacitance must align with the oscillator circuit design. Consider the -10°C lower temperature limit; applications requiring wider ranges may need alternative series parts.

Crystals Part Context

This part belongs to the SXT214 series of surface-mount crystals from Suntsu Electronics. The series offers various frequencies and packages. This specific model targets standard commercial and light industrial applications requiring stable 24 MHz reference signals in compact form factors.

Crystals Replacement Considerations

Cross-reference other SXT214 variants with identical 24 MHz frequency and 20 pF load capacitance. Verify package compatibility and ESR values to ensure functional equivalence without redesigning the oscillator circuit.