9B07300092

Crystals Overview

The TXC Corporation 9B07300092 is a through-hole MHz crystal designed for frequency control applications. It operates at a fundamental frequency of 7.3728 MHz with a load capacitance of 30 pF. The component utilizes an HC-49/S package, measuring 11.5 mm in length and 5.0 mm in width. It supports an operating temperature range from -10°C to +70°C. This part is classified as a discontinued product by the manufacturer.

Crystals Feature Summary

• Through-hole mounting configuration for standard PCB assembly
• Fundamental resonance mode operation
• Standard HC-49/S cylindrical metal case design

Crystals Applications

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

Crystals Procurement Notes

This component is officially discontinued and no longer manufactured by TXC Corporation. Procurement should focus on verifying the authenticity of remaining stock from authorized distributors or secondary market suppliers. Buyers must confirm the production date code and physical condition before acquisition, as availability is limited to existing inventory only.

Crystals Selection Notes

Engineers replacing this obsolete part should evaluate alternative crystals with matching 7.3728 MHz frequency and 30 pF load capacitance. Ensure the substitute component fits the HC-49/S footprint and meets the required -10°C to +70°C temperature specifications. Verify that the new part maintains compatible series resistance and stability parameters for the target application.

Crystals Part Context

The 9B07300092 belongs to the broader category of MHz crystals produced by TXC Corporation. These components are typically used in consumer electronics and industrial equipment requiring stable clock signals. The HC-49/S package is a widely recognized form factor for general-purpose resonators in legacy and current designs.

Crystals Replacement Considerations

No specific public substitute part numbers are confirmed in the provided documentation. Users must identify equivalent crystals based on electrical and mechanical compatibility.