0132M4-11.0592F20DTNJK

Overview

The 0132M4-11.0592F20DTNJK is a quartz crystal resonator manufactured by Suzhou Hangjing Elec&Tech Co., Ltd. It operates at a fundamental frequency of 11.0592 MHz with a load capacitance of 20 pF and a tolerance of ±10 ppm. The component utilizes a 4-SMD, No Lead package configuration. This device serves as a precision frequency control element for electronic circuits requiring stable clock signals.

Feature Summary

• Provides precise reference frequency generation for integrated circuits
• Utilizes SMD surface mount technology for automated assembly
• Designed for consistent quality through rigorous testing protocols

Applications

• Smartphone timing circuits
• In-vehicle system synchronization
• GPS module clock references
• Satellite communication equipment

Procurement Notes

Verify the complete part number including suffixes to ensure correct load capacitance and tolerance specifications. Confirm package dimensions against PCB footprint requirements. Request official datasheets from authorized distributors to validate electrical parameters before integration into design schematics.

Selection Notes

Select this component when a 11.0592 MHz frequency is required for digital logic or microcontroller systems. Ensure the 20 pF load capacitance matches the circuit design. Consider the ±10 ppm tolerance for applications requiring moderate frequency stability without active temperature compensation.

Part Context

This crystal belongs to the standard quartz resonator category produced by Suzhou Hangjing Elec&Tech Co., Ltd. The manufacturer focuses on full-cycle R&D and production of frequency control components. The company maintains ISO 9001:2015 certification for quality management systems in its manufacturing processes.

Replacement Considerations

Cross-reference with other 11.0592 MHz crystals featuring 20 pF load capacitance and 4-SMD packages. Verify equivalent electrical characteristics such as ESR and shunt capacitance. Ensure mechanical footprint compatibility with existing PCB layouts during substitution.