T60405R6123X285

Overview

The VACUUMSCHMELZE T60405-R6123-X285 is a horizontal single-phase common mode choke designed for high-current applications. It features an inductance of 1.6 mH and supports a maximum current rating of 85 A. The component utilizes nanocrystalline core technology to provide effective electromagnetic interference suppression in power electronics systems.

Feature Summary

• Horizontal mounting configuration for optimized PCB layout
• High current handling capability suitable for industrial power stages
• Nanocrystalline core construction for superior magnetic performance

Applications

• Industrial motor drive inverters
• High-power DC-DC converter output filtering
• Grid-tied renewable energy inverter stages

Procurement Notes

Verify the exact suffix X285 against official Vacuumschmelze documentation to confirm the 1.6 mH inductance and 85 A current rating. Ensure the horizontal package orientation matches the mechanical constraints of the target assembly. Cross-reference with authorized distributors to confirm availability and lead times, as specific suffixes may have limited stock or longer production cycles compared to standard variants.

Selection Notes

Select this component when high current capacity and compact horizontal form factor are required. The nanocrystalline material offers a balance of saturation performance and frequency response. Compare against vertical mount alternatives if board space allows, but prioritize this model for its specific 85 A rating and 1.6 mH value in high-power density designs.

Part Context

This part belongs to the T60405 series of nanocrystalline common mode chokes from Vacuumschmelze. The series is characterized by high saturation flux density and low core losses, making it suitable for demanding power electronic environments. The T60405 designation indicates a specific family of horizontally mounted filters designed for robust industrial use.

Replacement Considerations

Check for other X-suffix variations within the T60405-R6123 line that may offer different inductance values or current ratings. Verify mechanical compatibility with existing footprints before substituting with similar models from other manufacturers, as core materials and saturation characteristics may differ significantly.