NAH-16-471

Power Line Filter Modules Overview

The Cosel NAH-16-471 is a single-phase EMC/EMI power line filter rated for 16 A current and 250 VAC/DC voltage. It features a capacitance of 470 pF, resulting in a maximum leakage current of 100 uA. The unit utilizes screw terminal connections and is designed for DIN rail mounting. Operating frequency ranges from 10 kHz to 1 MHz.

Power Line Filter Modules Feature Summary

• Single-stage filtering architecture for electromagnetic interference suppression
• Low leakage current design suitable for sensitive medical or precision equipment
• DIN rail mounting configuration for standardized industrial panel integration

Power Line Filter Modules Applications

• Industrial control systems requiring EMI suppression
• Medical device power input protection
• Precision instrumentation power conditioning

Power Line Filter Modules Procurement Notes

Verify the specific suffix (e.g., -D) required for your application, as it may indicate terminal type or packaging variations. Confirm that the 16 A rating and 250 VAC/DC specifications align with your system's electrical requirements. Ensure DIN rail compatibility with your enclosure setup before procurement.

Power Line Filter Modules Selection Notes

Select this model when a single-phase filter with low leakage current is necessary. The 470 pF capacitance balances noise attenuation with safety leakage limits. Consider the DIN rail form factor if space-constrained industrial mounting is preferred over chassis installation.

Power Line Filter Modules Part Context

This component belongs to the Cosel NAH series of power line filters. The series offers various current ratings and capacitance values to suit different EMC requirements. The NAH-16-471 specifically addresses mid-range current applications with strict leakage constraints.

Power Line Filter Modules Replacement Considerations

Check for NAH-16-471-D if a specific terminal or packaging variant is needed. Verify pinout and mounting dimensions against existing designs to ensure mechanical compatibility during substitution.