AM867B1364

Overview

The AM867B1364 is a ceramic band pass filter manufactured by Anatech Electronics Inc. It operates at a center frequency of 867 MHz with a bandwidth of 15 MHz. The component features an insertion loss of less than 1 dB and a VSWR of 1.5:1 within the passband. It has a 50 Ohm impedance and utilizes an SMD package measuring 26.00mm x 17.00mm.

Feature Summary

• Utilizes ceramic construction for stable RF filtering performance
• Designed for surface mount integration via SMD module format
• Provides defined rejection characteristics outside the 15 MHz bandwidth

Applications

• RF signal processing in communication systems
• Frequency selection in wireless transceivers
• Interference suppression in 867 MHz operational bands

Procurement Notes

Verify the specific datasheet version to confirm exact electrical tolerances and pinout configurations. Ensure compatibility with the target PCB footprint dimensions of 26.00mm x 17.00mm. Confirm RoHS compliance status if required by regulatory standards. Cross-reference the manufacturer part number against current distributor listings to ensure authenticity.

Selection Notes

Select this component when a fixed 867 MHz center frequency with 15 MHz bandwidth is required. The SMD package facilitates automated assembly processes. Consider the 50 Ohm impedance match for standard RF transmission lines. Evaluate thermal requirements against the specified operating range if deployed in high-temperature environments.

Part Context

This part belongs to Anatech Electronics' ceramic filter series, which includes variants like AM867B1304 and AM876B1158. These components are designed for high-reliability applications requiring precise frequency control. The series typically offers low insertion loss and sharp roll-off characteristics suitable for demanding RF environments.

Replacement Considerations

AM867B1304 and AM867B1305 share similar 867.5 MHz specifications. Verify mechanical footprint compatibility before substitution. Electrical parameters such as insertion loss and VSWR must be compared directly to ensure circuit performance remains within acceptable limits.