FB322513T-320Y-S

Chip Ferrite Bead Overview

The FB322513T-320Y-S is a single-line ferrite bead from Cal-Chip Electronics, housed in a 1210 (3225 Metric) surface-mount package. It exhibits an impedance of 32 Ohms at 100 MHz and supports a current rating of 500 mA. The component features a low DC resistance of 100 mOhm, ensuring minimal signal loss while providing effective high-frequency noise suppression for signal lines.

Chip Ferrite Bead Feature Summary

• Provides effective electromagnetic interference filtering for signal lines
• Designed for surface-mount assembly processes
• Compact form factor suitable for space-constrained layouts

Chip Ferrite Bead Applications

• Signal line noise suppression
• High-frequency circuit filtering
• General-purpose EMI suppression

Chip Ferrite Bead Procurement Notes

Verify the specific impedance tolerance and current derating curves against your application requirements before procurement. Confirm that the 1210 package dimensions align with your PCB footprint design. Ensure compatibility with your chosen soldering profile to maintain component integrity during assembly.

Chip Ferrite Bead Selection Notes

Select this component when a 32 Ohm impedance at 100 MHz is required for signal conditioning. The 500 mA current rating suits low-power signal paths rather than power delivery lines. Consider the 100 mOhm DC resistance impact on voltage drop if used in sensitive analog circuits.

Chip Ferrite Bead Part Context

This part belongs to the FB Series multilayer ferrite chip beads offered by Cal-Chip Electronics. These components are engineered for general electronic equipment requiring reliable noise attenuation. The series utilizes ceramic materials to achieve stable performance across varying environmental conditions.

Chip Ferrite Bead Replacement Considerations

Direct substitutes must match the 1210 package, 32 Ohm @ 100 MHz impedance, and 500 mA current rating. Verify equivalent DC resistance and impedance frequency characteristics to ensure identical filtering behavior in the target circuit.