CBP-1062C+

Overview

The CBP-1062C+ is a ceramic-coaxial-resonator bandpass filter designed for surface-mount technology. It operates with a center frequency of 1.062 GHz and provides a bandwidth of 203 MHz, covering the range from 960 to 1164 MHz. The component features an insertion loss of 2 dB and maintains a 50Ω impedance. It is housed in a shielded 13-SMD module package measuring 19.05mm x 19.05mm x 5.71mm.

Feature Summary

• Utilizes ceramic-coaxial resonators for stable RF performance
• Encased in a miniature shielded SMT package
• Provides excellent out-of-band rejection characteristics

Applications

• Wireless communication systems requiring precise frequency selection
• RF front-end modules in transceivers
• Test and measurement instrumentation filters

Procurement Notes

Verify the specific suffix 'C+' against the manufacturer's current datasheet to confirm pinout and mechanical dimensions. Ensure compatibility with standard surface-mount assembly processes. Confirm RoHS compliance status as per the latest regulatory documentation before integration into final products.

Selection Notes

Select this component when a narrow bandpass response around 1.062 GHz is required. The 203 MHz bandwidth suits applications needing moderate selectivity. The shielded SMD form factor is ideal for space-constrained PCB layouts where electromagnetic interference isolation is critical.

Part Context

This part belongs to Mini-Circuits' CBP series, which utilizes coaxial-ceramic resonator technology. These filters are engineered for high stability and low insertion loss across various RF frequencies. The series supports fractional bandwidths ranging from less than 1% to 25%, catering to diverse filtering needs in microwave and radio frequency circuits.

Replacement Considerations

Consult official substitution guides for equivalent bandpass filters with matching center frequencies and bandwidths. Verify that alternative components maintain compatible 50Ω impedance and SMD footprint specifications to ensure seamless circuit integration without redesign.