10M333KLF

Overview

The Gowanda Electronics 10M333KLF is a fixed wirewound inductor with an inductance of 330 µH and a tolerance of ±10%. It features an unshielded design with a ferrite core, housed in an axial leaded package. The component has a maximum DC resistance of 28 Ω and a rated current of 45 mA. It operates within a temperature range of -55 °C to 125 °C and exhibits a self-resonant frequency of 7 MHz.

Feature Summary

• Axial leaded construction for through-hole mounting
• Unshielded wirewound design utilizing a ferrite core
• RoHS compliant manufacturing

Applications

• RF circuit filtering
• General purpose inductive applications
• Aerospace systems
• Defense electronics

Procurement Notes

Verify the specific suffix 'LF' confirms RoHS compliance status against the manufacturer's latest documentation. Confirm that the axial lead configuration matches the target PCB layout requirements. Ensure the 45 mA current rating and 28 Ω DC resistance are sufficient for the intended circuit load conditions before finalizing procurement.

Selection Notes

Select this component when an unshielded axial inductor is required for RF or general-purpose applications. The 330 µH value and 45 mA rating define its operational limits. Consider the 7 MHz self-resonant frequency to ensure performance stability at the target operating frequency. Verify thermal management capabilities within the specified -55 °C to 125 °C range.

Part Context

This part belongs to Gowanda Electronics' line of high-performance magnetic components designed for demanding environments. The company specializes in custom and standard inductors for aerospace, defense, and medical sectors. The 10M series represents molded axial RF coils, emphasizing reliability and strict quality standards including ISO certifications.

Replacement Considerations

Consult official Gowanda documentation for direct cross-references. Generic equivalents may not match the specific ferrite core characteristics or axial lead dimensions. Verify compatibility with existing board space and thermal constraints if substituting.