IHCM2321AAEG301N10

Common Mode Chokes Overview

The Vishay Dale IHCM2321AAEG301N10 is a surface-mount common mode choke designed for high-current applications. It features an inductance of 300 µH with a tolerance of ±30% and a DC resistance of 7 mΩ. The device supports a maximum DC current of 10 A and offers an impedance of 900 Ω at 10 MHz. Operating within a temperature range of -40°C to +155°C, it utilizes a horizontal package measuring 24.5 mm in length, 24 mm in width, and 10.5 mm in height.

Common Mode Chokes Feature Summary

• Low SMD profile design compatible with automated pick-and-place assembly
• High heat rating current capability up to 31 A and saturation current up to 35 A
• Self-shielded robust structure providing high shock and vibration resistance

Common Mode Chokes Applications

• DC/DC converters
• EMI filters
• Motor control circuits

Common Mode Chokes Procurement Notes

Verify the specific suffix against official Vishay documentation to confirm electrical parameters and compliance status. Confirm availability as distribution data may indicate limited stock or end-of-life status. Ensure the ordering code matches the required lead time and packaging format for production integration.

Common Mode Chokes Selection Notes

Select this component for designs requiring low-profile surface-mount common mode filtering with high thermal stability. The wide operating temperature range and high saturation current make it suitable for demanding industrial and automotive environments where space constraints and thermal management are critical factors.

Common Mode Chokes Part Context

This part belongs to the IHCM-2321 series of thin, high-shock resistant common mode chokes from Vishay Dale. The series is engineered for large current automotive, energy, and industrial applications, offering both surface mount and through-hole options with customizable electrical characteristics.

Common Mode Chokes Replacement Considerations

Consult official Vishay substitution guides for verified alternatives. Generic cross-references should be validated against pinout, inductance, and current ratings before implementation.