MI0402K600R-10

Overview

The MI0402K600R-10 is a single-line ferrite chip bead from the Laird MI series, designed for surface mount applications in the 0402 (1005 metric) package. It provides an impedance of 60 Ohms at a test frequency of 100 MHz and supports a maximum DC current of 1.5 A. The component features a maximum DC resistance of 35 milliohms and operates within a temperature range of -40°C to +125°C. Physical dimensions are 1.00 mm in length, 0.50 mm in width, and 0.50 mm in height.

Feature Summary

• Provides broadband electromagnetic interference filtering for power lines
• Monolithic construction ensures reliability in high-current environments
• Compact surface-mount footprint suitable for space-constrained designs

Applications

• Power line noise suppression in portable electronics
• Signal integrity management in compact consumer devices
• EMI filtering for high-density circuit boards

Procurement Notes

Verify the manufacturer part number against official Laird-Signal Integrity Products documentation to ensure authenticity. Confirm that the specific ordering suffix matches the required impedance and current ratings. Check RoHS compliance status and packaging specifications directly with authorized distributors prior to purchase.

Selection Notes

Select this component when a low-profile 0402 ferrite bead is required for power line filtering. Ensure the application current does not exceed the 1.5 A rating to prevent saturation. Verify that the 60 Ohm impedance at 100 MHz aligns with the target noise spectrum requirements.

Part Context

This component belongs to the Laird MI series of ferrite beads, which are engineered for signal integrity and EMI suppression. The series offers various impedance values and current ratings across multiple standard package sizes to support diverse electronic design needs.

Replacement Considerations

Consult official Laird-Signal Integrity Products substitution guides for verified alternatives. Cross-reference impedance curves and current ratings to ensure functional equivalence in the specific circuit application.