28B0626-0

Overview

The Leader Tech Inc. 28B0626-0 is a solid round ferrite bead designed for cable suppression applications. It features an internal diameter of 3.40 mm and an outer diameter of 16.00 mm, with a total length of 15.90 mm. The component provides an impedance of 300 Ohms at a test frequency of 100 MHz. Constructed as a large bead type, it serves as a solid core for electromagnetic interference reduction on cables.

Feature Summary

• Solid round construction for secure cable mounting
• High impedance performance at standard test frequencies
• Designed for single cable suppression applications

Applications

• Cable electromagnetic interference suppression
• Electronics noise filtering
• Signal integrity enhancement in wiring harnesses

Procurement Notes

Verify the specific impedance value of 300 Ohms at 100 MHz against your design requirements before ordering. Confirm that the internal diameter of 3.40 mm accommodates the target cable bundle or single wire without excessive force. Ensure the external dimensions fit within the available enclosure space. Check RoHS compliance status if environmental regulations apply to your assembly process.

Selection Notes

Select this component when a high-impedance solid ferrite bead is required for a cable with a diameter near 3.40 mm. The 300 Ohm rating makes it suitable for suppressing higher frequency noise compared to lower impedance alternatives. Consider the physical size constraints, as the 16.00 mm outer diameter requires adequate clearance around the cable path.

Part Context

This part belongs to the Leader Tech FerriShield series of cable ferrites. It is categorized under solid round ferrite beads, distinct from split cores or clamp-on types. The product line focuses on providing reliable EMI suppression solutions for various electronic interconnects and wiring systems.

Replacement Considerations

No public confirmed substitute part numbers are available in the provided documentation. Verify compatibility carefully if considering alternative manufacturers, as impedance curves and material compositions may differ significantly.