AM867B1304

Overview

The AM867B1304 is a ceramic bandpass filter manufactured by Anatech Electronics Inc. It operates with a center frequency of 867.5 MHz and provides a bandwidth of 15 MHz. The component features a 50 Ohm impedance and is housed in an 8-SMD module package. Key electrical specifications include an insertion loss of less than 4.0 dB and a return loss greater than 14 dB, ensuring effective signal filtering within the designated RF spectrum.

Feature Summary

• Utilizes ceramic construction for stable RF performance
• Designed as a bandpass filter with specific center frequency tuning
• Integrated into an 8-SMD surface-mount module format

Applications

• RF signal processing circuits
• Wireless communication systems operating near 867.5 MHz
• Test and measurement equipment requiring precise frequency selection

Procurement Notes

Verify the exact datasheet version from Anatech Electronics Inc. to confirm current manufacturing status and compliance certifications. Ensure compatibility with 8-SMD footprint dimensions and 50 Ohm system impedance before integration. Cross-reference pinout configurations if alternative suppliers are considered.

Selection Notes

Select this component when a fixed 15 MHz bandwidth at 867.5 MHz is required. The low insertion loss and high return loss make it suitable for applications demanding minimal signal degradation. Confirm that the 8-SMD package aligns with existing PCB layout constraints and thermal management requirements.

Part Context

Anatech Electronics Inc. specializes in RF and microwave filters, including ceramic bandpass designs. The AM867B series addresses niche frequency requirements in industrial and commercial electronics. This model represents a standardized solution for specific mid-band RF filtering needs without requiring complex tuning mechanisms.

Replacement Considerations

The AM867B1305 shares similar characteristics but may differ in specific tolerance or packaging details. Verify functional equivalence through official datasheets before substitution. No other direct substitutes are publicly confirmed.