902MHz to 928MHz 12dBi Vertical or Horizontal Panel Directional Antenna N-Female

Model No: PA-915M12-NF

 
Beam-width: Horz. 36°, Vert. 42°
Connector: N-Female
Dimensions: 410 x 415 x 45 mm
Weight: 2 KG
Impedance: 50Ω
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915MHz 12dBi High-Gain Panel Antenna

Model: PA-915M12-NF | Patch Array | N-Female Connector
The PA-915M12-NF is a premium directional patch array antenna designed for the 900MHz ISM band, specifically tailored for LoRaWAN gateways and long-distance RFID systems. With an impressive 12 dBi gain and a highly directional beam pattern, it provides exceptional range and interference rejection. Housed in a UV-stabilized gray ABS radome with an aluminum support structure, it offers industrial-grade Signal Integrity and reliability for critical wireless infrastructure.
Core Electrical Specifications
Frequency Range 902MHz to 928MHz
V.S.W.R (MAX) 1.5 : 1 (at 915MHz)
Average Gain 12 dBi
Polarization Vertical or Horizontal
Beam-width Horz. 36° / Vert. 42°
Maximum Power 15 Watts
Impedance 50 Ohm
Mechanical & Environmental Parameters
Dimensions (L x W x H) 415 x 405 x 45 mm
Antenna Weight 2.0 kg
Radome Material Gray ABS + UV Protection
Connector Type N-Female
Mounting Style Pole Mount / Wall Mount
Mount Adjustment ± 28 Degrees
Wind Survival > 150 MPH
Key Tactical & Engineering Features

High-Gain Patch Array

Utilizes a multi-patch array layout on premium FR4 material to achieve a narrow 36° horizontal beam-width, significantly extending the effective range of 915MHz links.

Integrated Surge Protection

Equipped with a DC-Short lightning protection circuit to safeguard connected gateways and radios from static build-up and atmospheric surges.

Precision Tilt-Adjustment

The included heavy-duty mounting kit allows for ± 28° of vertical and horizontal alignment, essential for optimizing Point-to-Point bridge links over long distances.

Industrial Grade Construction

Features an aluminum back-plate and UV-resistant radome designed to withstand extreme wind loads (>150MPH) and harsh outdoor climates without performance degradation.