ANT1040

Antennas RF Overview

The ANT1040 is a ceramic patch antenna manufactured by RFMi, designed for GPS navigation applications. It operates at a center frequency of 1.586GHz with a specified frequency range of 1.583GHz to 1.589GHz. This component falls within the UHF frequency group (1GHz ~ 2GHz) and is classified under the Navigation RF family/standard. The device utilizes ceramic technology and is intended for surface mount integration.

Antennas RF Feature Summary

• Utilizes ceramic patch construction for stable RF performance
• Optimized for GPS navigation signal reception
• Designed for surface mount integration

Antennas RF Applications

• GPS navigation systems
• Global positioning receiver modules
• Navigation-enabled mobile devices

Antennas RF Procurement Notes

Verify the specific datasheet version and RoHS compliance status directly with the manufacturer or authorized distributor before procurement. Confirm that the package type matches the required PCB footprint and soldering profile. Ensure the component meets all relevant regulatory standards for the target market.

Antennas RF Selection Notes

Select this component when a dedicated ceramic patch antenna is required for GPS L-band frequencies. Consider the physical dimensions and mounting requirements against available board space. Evaluate the impedance matching characteristics relative to the connected transceiver circuitry to ensure optimal signal transfer efficiency.

Antennas RF Part Context

RFMi, now part of Akoustis, specializes in RF components using SAW, crystal, and ceramic technologies. The ANT1040 belongs to their portfolio of passive RF antennas, distinct from their active resonators and filters. This product line supports wireless communication infrastructure and consumer electronics requiring precise frequency control.

Antennas RF Replacement Considerations

Consult official cross-reference lists for verified substitutes. Generic replacements may differ in gain, bandwidth, or polarization characteristics. Verify compatibility with existing RF front-end designs before substitution.