FMWAN112-10NF

Antennas RF Overview

The FMWAN112-10NF is a WR-112 waveguide antenna manufactured by Fairview Microwave, designed for operation within the H-band frequency range of 7.05 GHz to 10 GHz. This component features a nominal gain of 10 dBi and utilizes an N female connector interface. Constructed as a standard gain horn antenna, it is engineered for applications requiring reliable RF transmission in the specified microwave spectrum.

Antennas RF Feature Summary

• Operates within the WR-112 waveguide standard frequency band
• Provides 10 dBi nominal gain for signal efficiency
• Features an N female connector for coaxial integration

Antennas RF Applications

• Microwave communication systems
• RF test and measurement setups
• Wireless link point-to-point connections

Antennas RF Procurement Notes

Verify the specific datasheet version from Fairview Microwave or authorized distributors to confirm mechanical dimensions and environmental ratings. Ensure compatibility with WR-112 waveguide interfaces and N-type mating connectors. Confirm RoHS compliance status if required for your project specifications before finalizing procurement.

Antennas RF Selection Notes

Select this model when a 10 dBi gain is sufficient for the link budget within the 7.05 GHz to 10 GHz range. The N female connector simplifies integration with standard coaxial cables. Consider physical size and mounting requirements relative to the WR-112 waveguide system constraints.

Antennas RF Part Context

This antenna belongs to the Fairview Microwave WR-112 series, which covers the H-band. It complements other waveguide components like adapters and flexible sections, providing a standardized radiating element for H-band applications requiring moderate gain and coaxial connectivity.

Antennas RF Replacement Considerations

Check for direct substitutes with identical WR-112 flange standards and N female connectors. Verify that alternative models maintain the 7.05 GHz to 10 GHz operational range and comparable 10 dBi gain performance to ensure system continuity.