BPF-A800+

Overview

The BPF-A800+ is a surface-mount bandpass filter designed for radio frequency signal conditioning. It operates with a center frequency of 800 MHz and provides a bandwidth of 10 MHz, covering the range from 795 to 805 MHz. The component features a 50 Ohm impedance and utilizes an SMD/SMT termination type for board mounting. Manufactured by Mini-Circuits under the BPF series, it is engineered for reliable performance in RF applications requiring precise frequency selection.

Feature Summary

• Surface-mount construction for automated PCB assembly
• Precise 10 MHz bandwidth centered at 800 MHz
• Standard 50 Ohm system impedance compatibility

Applications

• RF front-end filtering in communication systems
• Signal conditioning in microwave circuits
• Frequency selection in wireless infrastructure

Procurement Notes

Verify the specific datasheet version and electrical specifications directly from Mini-Circuits official documentation before integration. Confirm that the surface-mount package dimensions align with your PCB footprint design. Ensure environmental operating conditions meet the component's rated temperature range for your specific application environment.

Selection Notes

Select this component when a fixed 800 MHz center frequency with narrow 10 MHz bandwidth is required. The surface-mount format suits high-density circuit designs. Verify impedance matching requirements against the 50 Ohm standard specification to ensure optimal signal transmission and minimal reflection in the target RF path.

Part Context

This part belongs to the Mini-Circuits BPF series, which specializes in surface-mount bandpass filters for RF and IF signal processing. The manufacturer is a global leader in designing components from DC to 86 GHz, providing standardized solutions for signal conditioning across various electronic industries.

Replacement Considerations

Consult Mini-Circuits official substitution guides for verified alternatives. Cross-reference center frequency, bandwidth, and impedance parameters to ensure functional equivalence without modifying the surrounding circuit design.