#Dish Antenna
About #Dish Antenna
Dish antennas are widely used by WISPs to build reliable, high-performance wireless networks over long distances. Their parabolic design concentrates RF energy into a narrow, highly directional beam, delivering high gain, improved signal quality, and greater resistance to interference compared to wider coverage antennas.
In WISP deployments, dish antennas are commonly used for point-to-point backhaul links between towers, network aggregation sites, and long-distance customer connections where maximum throughput and link stability are required. The focused beam allows operators to achieve higher modulation rates, improved spectrum efficiency, and more consistent performance, even in congested RF environments.
Modern wideband dish antennas support multiple frequency bands and are compatible with a wide range of radios, giving WISPs the flexibility to deploy networks using both current and future wireless technologies while extending coverage to rural and underserved areas.
Products tagged #Dish Antenna
WB6-BH-900
Wideband 6 GHz Backhaul 900 mm (3 ft) Deep Dish Antenna
High-gain 4.9–7.2 GHz 900 mm deep dish backhaul antenna for long-range 10–20 km PTP wireless bridges, Wi-Fi 6E, Wi-Fi 7 MLO, Ubiquiti Wave MLO5/6, Cambium ePMP Force 4600c, and WISP backhaul deployments.
antenna
6GHz
5GHz
WB6-CPE-600
Wideband 6 GHz CPE 600mm Dish Antenna 2-pack
High-performance Wideband 6 GHz 600 mm (2 ft) CPE Dish Antenna 2-pack for Ubiquiti Wave MLO6 PtP wireless bridge relays, long-distance ePMP Force 4600c PtMP clients, WISP subscriber installations, and cost-effective 5 GHz and 6 GHz CPE deployments.
antenna
6GHz
5GHz
#Dish Antenna
2 products
Overview
Dish antennas are a key part of many WISP networks, providing highly focused, high-gain wireless links for long-distance and high-capacity connections. Their narrow beamwidth helps minimize interference and maximize signal strength, making them ideal for backhaul links, tower-to-tower connections, and long-range subscriber deployments where reliability and throughput are critical.