FG00006
KEESUN
FG00006
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This comprehensive product description details the high-performance 902-928 MHz Fiberglass Reinforced Polymer (FRP) Omnidirectional Antenna, engineered specifically for robust, long-distance wireless communication applications. Combining exceptional electrical performance with unparalleled environmental durability, this antenna is the ideal solution for deploying reliable Industrial, Scientific, and Medical (ISM) band networks across wide geographic areas.
The core design of this antenna focuses on maximizing Effective Isotropic Radiated Power (EIRP) for extended range in the 902-928 MHz frequency spectrum. The radiating elements consist of a meticulously tuned collinear array, designed to shape the signal into a narrow, concentrated beam along the horizontal plane, a crucial factor for long-distance communication links.
This antenna features a high gain specification, typically ranging from 6 dBi to 10 dBi, achieved by compressing the vertical beamwidth. By focusing the radio frequency energy towards the horizon, this design effectively overcomes standard path loss, significantly boosting both transmission distance and reception sensitivity. The omnidirectional nature ensures uniform 360-degree coverage, making it suitable for central network hubs that must service numerous remote endpoints in all directions.
The antenna is encased in a rigid, UV-resistant Fiberglass Reinforced Polymer (FRP) radome. This robust outer shell provides superior protection against harsh environmental conditions, including extreme temperatures, high winds, heavy rain, snow, and corrosive coastal salt spray. This construction ensures the longevity and stable performance of the internal radiating elements, minimizing maintenance requirements and maximizing network uptime in critical applications. The material is chosen for its low dielectric constant, ensuring minimal signal attenuation while providing maximum physical protection.
Operating within the 902-928 MHz band (a license-free spectrum in regions like the USA), this antenna leverages the inherent propagation advantages of lower Ultra-High Frequency (UHF) signals. Signals in this range exhibit superior Non-Line-of-Sight (NLOS) capabilities, better penetration through building materials and foliage, and reduced atmospheric attenuation compared to higher frequency bands. These characteristics are fundamental to achieving the advertised long-distance performance required for rural and challenging urban deployments.
The reliability, range, and all-weather capability of the 902-928 MHz FRP Omni Antenna make it indispensable across several demanding wireless communication sectors. It is primarily used as a Base Station or Gateway Antenna for Wide-Area Networks.
This antenna is the backbone for most high-performance LoRaWAN (Long Range Wide Area Network) gateways and Helium Hotspots. It provides the necessary range to connect low-power, battery-operated end devices (sensors, trackers, meters) scattered over distances often exceeding 10 to 20 kilometers in open terrain. Its omnidirectional coverage efficiently serves all deployed LoRa nodes within a vast circular footprint, minimizing the number of gateways required to cover a region.
In agricultural technology (AgriTech) and rural settings, achieving signal coverage over vast, undulating fields and through sparse foliage is critical. This antenna is used to connect remote environmental sensors, soil moisture probes, livestock trackers, and irrigation control systems. Its long-range capability ensures reliable data collection from devices located miles away from the central farm monitoring station, significantly improving efficiency and resource management.
Utility companies utilize the 900 MHz band for Automated Metering Infrastructure (AMI). This antenna is deployed on water towers, communication towers, or tall buildings to establish a reliable link with thousands of electricity, water, and gas meters. The robust FRP design ensures durability on exposed infrastructure, while the omnidirectional pattern enables efficient collection of metering data from all surrounding residential and commercial installations.
For Supervisory Control and Data Acquisition (SCADA) systems, particularly those monitoring geographically dispersed assets like pipelines, oil and gas fields, or remote pumping stations, this antenna provides a crucial data link. Its resilience and long-distance reach ensure that control signals and telemetry data are reliably transmitted back and forth across remote, often harsh, industrial environments where network failure is not an option.
The antenna is designed for professional deployment, featuring a sturdy mounting bracket kit suitable for mast or pole installation. The standard connectivity is typically an N-Type Female connector, a robust and weather-sealed interface preferred for outdoor coaxial cable runs. Proper installation involves positioning the antenna as high as possible and ensuring it is correctly grounded to protect against lightning and static buildup, maximizing its operational lifespan and preventing damage to connected network equipment. This careful deployment methodology ensures the antenna's theoretical long-distance capabilities are realized in practical, real-world network performance.
This comprehensive product description details the high-performance 902-928 MHz Fiberglass Reinforced Polymer (FRP) Omnidirectional Antenna, engineered specifically for robust, long-distance wireless communication applications. Combining exceptional electrical performance with unparalleled environmental durability, this antenna is the ideal solution for deploying reliable Industrial, Scientific, and Medical (ISM) band networks across wide geographic areas.
The core design of this antenna focuses on maximizing Effective Isotropic Radiated Power (EIRP) for extended range in the 902-928 MHz frequency spectrum. The radiating elements consist of a meticulously tuned collinear array, designed to shape the signal into a narrow, concentrated beam along the horizontal plane, a crucial factor for long-distance communication links.
This antenna features a high gain specification, typically ranging from 6 dBi to 10 dBi, achieved by compressing the vertical beamwidth. By focusing the radio frequency energy towards the horizon, this design effectively overcomes standard path loss, significantly boosting both transmission distance and reception sensitivity. The omnidirectional nature ensures uniform 360-degree coverage, making it suitable for central network hubs that must service numerous remote endpoints in all directions.
The antenna is encased in a rigid, UV-resistant Fiberglass Reinforced Polymer (FRP) radome. This robust outer shell provides superior protection against harsh environmental conditions, including extreme temperatures, high winds, heavy rain, snow, and corrosive coastal salt spray. This construction ensures the longevity and stable performance of the internal radiating elements, minimizing maintenance requirements and maximizing network uptime in critical applications. The material is chosen for its low dielectric constant, ensuring minimal signal attenuation while providing maximum physical protection.
Operating within the 902-928 MHz band (a license-free spectrum in regions like the USA), this antenna leverages the inherent propagation advantages of lower Ultra-High Frequency (UHF) signals. Signals in this range exhibit superior Non-Line-of-Sight (NLOS) capabilities, better penetration through building materials and foliage, and reduced atmospheric attenuation compared to higher frequency bands. These characteristics are fundamental to achieving the advertised long-distance performance required for rural and challenging urban deployments.
The reliability, range, and all-weather capability of the 902-928 MHz FRP Omni Antenna make it indispensable across several demanding wireless communication sectors. It is primarily used as a Base Station or Gateway Antenna for Wide-Area Networks.
This antenna is the backbone for most high-performance LoRaWAN (Long Range Wide Area Network) gateways and Helium Hotspots. It provides the necessary range to connect low-power, battery-operated end devices (sensors, trackers, meters) scattered over distances often exceeding 10 to 20 kilometers in open terrain. Its omnidirectional coverage efficiently serves all deployed LoRa nodes within a vast circular footprint, minimizing the number of gateways required to cover a region.
In agricultural technology (AgriTech) and rural settings, achieving signal coverage over vast, undulating fields and through sparse foliage is critical. This antenna is used to connect remote environmental sensors, soil moisture probes, livestock trackers, and irrigation control systems. Its long-range capability ensures reliable data collection from devices located miles away from the central farm monitoring station, significantly improving efficiency and resource management.
Utility companies utilize the 900 MHz band for Automated Metering Infrastructure (AMI). This antenna is deployed on water towers, communication towers, or tall buildings to establish a reliable link with thousands of electricity, water, and gas meters. The robust FRP design ensures durability on exposed infrastructure, while the omnidirectional pattern enables efficient collection of metering data from all surrounding residential and commercial installations.
For Supervisory Control and Data Acquisition (SCADA) systems, particularly those monitoring geographically dispersed assets like pipelines, oil and gas fields, or remote pumping stations, this antenna provides a crucial data link. Its resilience and long-distance reach ensure that control signals and telemetry data are reliably transmitted back and forth across remote, often harsh, industrial environments where network failure is not an option.
The antenna is designed for professional deployment, featuring a sturdy mounting bracket kit suitable for mast or pole installation. The standard connectivity is typically an N-Type Female connector, a robust and weather-sealed interface preferred for outdoor coaxial cable runs. Proper installation involves positioning the antenna as high as possible and ensuring it is correctly grounded to protect against lightning and static buildup, maximizing its operational lifespan and preventing damage to connected network equipment. This careful deployment methodology ensures the antenna's theoretical long-distance capabilities are realized in practical, real-world network performance.