MCB10-401-RC

Chip Ferrite Bead Overview

The MCB10-401-RC is a surface-mount ferrite bead manufactured by Allied Components International. It features an impedance of 400 Ohms at 100 MHz and is housed in an 0806 (2016 metric) package. The component is designed for mid-current applications, providing effective noise suppression in compact electronic assemblies. It operates within a temperature range of -55°C to +125°C and complies with RoHS standards.

Chip Ferrite Bead Feature Summary

• Provides high impedance noise suppression at 100 MHz
• Designed for mid-current power line applications
• RoHS compliant and lead-free construction

Chip Ferrite Bead Applications

• Power line noise suppression
• Compact electronic assembly filtering
• Signal integrity enhancement in digital circuits

Chip Ferrite Bead Procurement Notes

Verify the specific datasheet version for the MCB10-401-RC to confirm current manufacturing status and compliance certifications. Ensure that the 0806 package dimensions align with your PCB footprint requirements. Cross-reference the 400 Ohm impedance specification against your circuit's frequency response needs to validate performance suitability.

Chip Ferrite Bead Selection Notes

Select this component when a 400 Ohm impedance at 100 MHz is required for noise attenuation in space-constrained designs. The 0806 package offers a balance between current handling capability and board real estate efficiency. Consider the operating temperature range of -55°C to +125°C for environmental robustness in industrial or automotive contexts.

Chip Ferrite Bead Part Context

This part belongs to the MCB series of mid-current chip beads from Allied Components International. The series includes various impedance values tailored for different filtering requirements while maintaining consistent physical dimensions and thermal characteristics across the product line.

Chip Ferrite Bead Replacement Considerations

Direct substitutes must match the 400 Ohm impedance at 100 MHz and the 0806 package size. Verify equivalent current ratings and thermal performance before substitution.