SYBP-1420+

Overview

The SYBP-1420+ is a lumped LC bandpass filter designed for radio frequency signal conditioning. It operates with a center frequency of 1.42 GHz and provides a bandwidth of 310 MHz, covering a range from 1.25 to 1.56 GHz. The component features an insertion loss of approximately 2.9 dB within the passband. It is housed in a compact 6-SMD, no-lead package, suitable for surface-mount assembly. This filter is engineered for applications requiring precise frequency selection and signal integrity in RF circuits.

Feature Summary

• Lumped LC architecture for effective bandpass filtering
• Compact 6-SMD surface-mount package design
• Optimized for high-selectivity RF signal conditioning

Applications

• RF front-end modules
• Wireless communication systems
• Signal processing circuits

Procurement Notes

Verify the specific ordering suffix against the manufacturer's current datasheet to ensure compatibility with required performance specifications. Confirm that the '+ ' suffix indicates lead-free compliance as per Mini-Circuits standards. Cross-reference the part number with authorized distributors to validate authenticity and traceability before procurement.

Selection Notes

Select this component when a narrow bandpass response around 1.42 GHz is required. Consider the 310 MHz bandwidth and low insertion loss characteristics for sensitive RF paths. Ensure the PCB layout supports the 6-SMD footprint and maintains impedance matching for optimal performance at the target frequency.

Part Context

This part belongs to the SYBP series of bandpass filters from Mini-Circuits. These components are designed for general-purpose RF applications where size and performance balance is critical. The series offers various center frequencies to suit different wireless standards and frequency bands.

Replacement Considerations

Consult Mini-Circuits documentation for direct substitutes within the SYBP series or alternative models like ZVBP-N+ for cavity-based requirements. Verify electrical parameter alignment before substitution.