T60405A6161X003

Overview

The T60405-A6161-X003 is a common mode choke manufactured by Vacuumschmelze, designed for vertical through-hole mounting. It features a nanocrystalline core material and provides an inductance of 6.6 mH with a tolerance range of -30% to +50%. The component supports a maximum DC current of 20 mA and exhibits an impedance of 6.5 kOhms at its self-resonant frequency of 400 kHz. It operates within a temperature range of -40°C to +130°C and measures 27 mm in length.

Feature Summary

• Utilizes nanocrystalline Vitroperm core material for high magnetic performance
• Vertical through-hole mounting configuration for PCB integration
• High impedance characteristics suitable for common mode noise suppression

Applications

• Common mode filtering in electronic circuits
• Noise suppression in power supply lines
• Signal integrity protection in sensitive electronics

Procurement Notes

Verify the specific suffix X003 against official Vacuumschmelze documentation to confirm exact electrical tolerances and mechanical dimensions. Ensure compatibility with vertical mounting requirements and verify that the 20 mA DC current rating meets the application's operational limits before procurement.

Selection Notes

Select this component when high inductance values are required for low-frequency common mode noise attenuation. The nanocrystalline core offers superior performance compared to standard ferrite alternatives. Confirm that the low DC current rating aligns with the circuit's load requirements and that the vertical form factor fits the available board space.

Part Context

This part belongs to the T60405 series of common mode chokes from Vacuumschmelze. The series utilizes nanocrystalline materials known for high permeability and low losses. These components are engineered for robust electromagnetic interference suppression in demanding industrial and commercial environments.

Replacement Considerations

Consult official Vacuumschmelze substitution guides for verified equivalents. Generic replacements may not match the nanocrystalline core properties or specific impedance curves.