SX5B10.000F1820F30

Crystals Overview

The SX5B10.000F1820F30 is a 10 MHz fundamental mode crystal oscillator manufactured by Shenzhen SCTF Electronics. It features a ±10 ppm frequency tolerance and operates with a load capacitance of 18 pF. The component exhibits an equivalent series resistance (ESR) of 80 Ohms and utilizes the F30 package variant, which corresponds to a 4-SMD, no-lead surface-mount configuration designed for automated assembly processes.

Crystals Feature Summary

• Fundamental resonance mode operation for stable frequency generation
• Surface-mount construction optimized for high-volume automated placement
• Standardized load capacitance compatibility for circuit integration

Crystals Applications

• General-purpose clock signal generation in electronic circuits
• Timing reference sources for microcontroller systems
• Frequency control elements in consumer electronics assemblies

Crystals Procurement Notes

Verify the specific load capacitance requirement against the target circuit design, as this unit specifies 18 pF rather than the common 20 pF standard. Confirm that the PCB footprint matches the F30 package dimensions to ensure proper solder joint formation during reflow processing.

Crystals Selection Notes

Select this component when a 10 MHz timing source with ±10 ppm stability is required in a compact surface-mount form factor. Consider the 18 pF load capacitance constraint carefully to avoid frequency deviation issues in the final application environment compared to standard 20 pF designs.

Crystals Part Context

This part belongs to the SX5B series of surface-mount crystals from Shenzhen SCTF Electronics. The series provides fundamental mode oscillators in various SMD packages, offering a balance between size constraints and electrical performance for embedded timing applications.

Crystals Replacement Considerations

Cross-reference with other 10 MHz crystals in the 4-SMD no-lead format. Ensure substitute parts match the 18 pF load capacitance and 80 Ohm ESR specifications to maintain circuit timing integrity without redesign.