AE945L8908

Overview

The AE945L8908 is a lowpass filter manufactured by Anatech Electronics Inc., designed for RF applications with a cutoff frequency of 945 MHz. It features SMA female connectors and operates within a module package. The component exhibits an insertion loss of less than 1 dB in the 550-945 MHz range and less than 3 dB at 1000 MHz. Return loss exceeds 15 dB, ensuring effective signal transmission while attenuating higher frequencies.

Feature Summary

• Provides lowpass filtering functionality with a 945 MHz cutoff frequency
• Equipped with SMA female connectors for standard RF interfacing
• Maintains insertion loss below 1 dB across the primary passband

Applications

• RF signal conditioning in communication systems
• Harmonic suppression in transmitter outputs
• Interference mitigation in receiver front ends

Procurement Notes

Verify the specific datasheet version to confirm connector polarity and mechanical dimensions. Ensure compatibility with system impedance requirements before integration. Cross-reference part numbers with official manufacturer documentation to avoid counterfeit components. Confirm environmental ratings if operating in extreme conditions.

Selection Notes

Select this component when a sharp cutoff near 945 MHz is required with minimal passband loss. Consider the SMA interface for ease of integration into existing test or production setups. Evaluate thermal performance if high power levels are expected, as datasheet limits must be respected.

Part Context

This model belongs to Anatech Electronics' line of discrete RF filters. It is engineered for reliability in demanding electronic environments. The product series typically includes various cutoff frequencies to suit different bandwidth requirements in professional RF equipment.

Replacement Considerations

Consult official substitution lists from Anatech Electronics for direct equivalents. Verify that any alternative maintains identical SMA connector types and electrical specifications to ensure seamless system integration without redesign.