— Download —
Consumer hotline +8618073152920 WhatsApp:+8615367865107
Address:Room 102, District D, Houhu Industrial Park, Yuelu District, Changsha City, Hunan Province, China
All products
Automatic weather station (AWS), also known as an automated weather station, is a device or network of devices that autonomously collect and transmit meteorological data. AWSs are designed to operate without human intervention, continuously monitoring and recording various weather parameters. Automatic weather station play a critical role in meteorology, climate monitoring, research, agriculture, and other applications. They provide valuable data for weather forecasting, clim···
Tel/WhatsApp:+8615367865107
Email:Arvin@niubol.com +Nearly 100 partner companies in more than 75 countries. We are committed to providing high-quality, practical products to meet your needs and help you solve problems. Our products comply with international standards and are certified with ISO, CE and RoHS.Product Details
NiuBoL provides configurable automatic weather station (AWS) systems for continuous meteorological, agricultural, hydrological and environmental monitoring. A complete station can combine weather sensors, data acquisition, remote communication, power supply and outdoor mounting equipment according to the requirements of each project.
Typical meteorological measurements include air temperature, relative humidity, barometric pressure, wind speed, wind direction, rainfall and solar radiation. Additional parameters such as PAR, soil moisture, soil temperature, EC, CO2, PM2.5, PM10, noise, visibility, leaf wetness and snow depth can be integrated when required.
RS485 Modbus RTU sensors can connect to a compatible data logger, PLC or IoT gateway. Depending on the selected system architecture, weather data can be transmitted through 4G, Ethernet, Wi-Fi or LoRaWAN to a cloud platform or private server. Solar panels and batteries can also be configured for remote sites without a reliable mains power supply.

An automatic weather station is a complete monitoring system rather than a single sensor. The final configuration normally includes measurement sensors, a data logger or IoT gateway, communication equipment, power supply and mounting hardware.
| System Component | Typical Configuration | Function |
| Weather Sensors | Temperature, humidity, pressure, wind, rainfall, radiation and optional agricultural or environmental sensors | Measure meteorological and environmental parameters |
| Data Logger / IoT Gateway | RS485, analog, pulse or other compatible acquisition interfaces | Collect, record and process sensor measurements |
| Communication | 4G / Ethernet / Wi-Fi / LoRaWAN depending on system architecture | Transmit monitoring data remotely |
| Power Supply | DC / AC / Solar Panel + Battery | Provide continuous station power |
| Mounting System | Weather station pole, sensor brackets, enclosure and accessories | Support and protect field equipment |
| Cloud / Server | Cloud platform or customer private server | Data visualization, storage and system integration |
The sensor package should be selected according to the actual monitoring objective instead of using one fixed configuration for every project. A standard meteorological station normally starts with temperature, humidity, atmospheric pressure, wind speed, wind direction, rainfall and solar radiation.
For agriculture, environmental monitoring, transportation or research, additional sensors can be added to the same monitoring system. The following options provide a practical overview of the main sensors available for automatic weather station projects.
| Measurement | Sensor Option | Typical Application |
| Temperature Humidity Pressure | Temperature, Humidity & Pressure SensorRS485 or analog configurations depending on model | Meteorological, agricultural and environmental monitoring |
| Wind Speed | NBL-W-SS 3-Cup Wind Speed Sensoror an ultrasonic wind sensor | Weather stations, agriculture, ports and transportation |
| Wind Direction | NBL-W-DS Wind Direction Sensoror an ultrasonic wind sensor | Meteorological, agricultural and environmental wind monitoring |
| Rainfall | Tipping Bucket Rain Gaugeor a piezoelectric rainfall sensor | Meteorology, agriculture, hydrology and flood monitoring |
| Solar Radiation | NBL-W-HPRS Pyranometer / Solar Radiation Sensor | Meteorology, agriculture, solar energy and research |
| Multiple Weather Parameters | All-in-One Ultrasonic Weather Sensor5-in-1 to 10-in-1 configurations | Compact remote and distributed weather stations |
Separate mechanical sensors provide greater flexibility for modular systems, while an integrated ultrasonic weather sensor combines several parameters in one compact housing. The correct choice depends on the required parameters, installation conditions, maintenance strategy and preferred output interface.
An automatic weather station can also be expanded beyond standard meteorological measurements. These sensors are commonly selected for agriculture, air-quality monitoring, roads, airports, research stations and other specialized projects.
| Measurement | Sensor Option | Typical Application |
| PAR / PPFD | NBL-W-PARS PAR Sensor | Agriculture, greenhouses and plant research |
| Soil Moisture & Temperature | Soil Moisture & Temperature Sensor | Agriculture, irrigation and soil monitoring |
| PM2.5 / PM10 | PM2.5 & PM10 Sensor | Air-quality, urban and environmental monitoring |
| CO2 | CO2 Sensor | Greenhouses, environmental and industrial monitoring |
| Noise | NBL-W-NS Noise Sensor | Urban, transportation and industrial monitoring |
| Visibility | Atmospheric Visibility Sensor | Roads, airports, ports and meteorological monitoring |
| Snow Depth | NBL-W-SNOW Ultrasonic Snow Depth Sensor | Cold-region, alpine and winter weather monitoring |
Other measurements such as soil EC, soil pH, leaf wetness, illuminance, sunshine duration and evaporation can also be integrated when required by the project.
NiuBoL weather stations can use individually mounted sensors or an integrated ultrasonic weather sensor. Neither design is suitable for every project; the selection should follow the required parameters, installation conditions and maintenance strategy.
| Selection Item | Modular Weather Station | Integrated Ultrasonic Weather Station |
| Sensor Structure | Separate wind, rainfall, radiation and atmospheric sensors | Several meteorological parameters integrated into one housing |
| Configuration Flexibility | High; individual sensors can be selected independently | Select a defined multi-parameter configuration |
| Wind Measurement | Cup anemometer + wind vane or a separate ultrasonic wind sensor | Ultrasonic transit-time measurement |
| Installation | Several mounting positions and brackets | Compact installation with fewer sensor bodies |
| Maintenance | Individual sensors can be inspected or replaced separately | No conventional rotating cups or mechanical wind vane for wind measurement |
| Typical Selection | Agriculture, research and customized monitoring projects | Compact remote and distributed weather stations |
The following configurations are practical starting points. Final equipment should be selected from the actual project requirements rather than assuming that every station requires the same sensors.
| Project Type | Typical Measurements | Typical Configuration |
| Basic Weather Station | Temperature, Humidity, Pressure, Wind Speed, Wind Direction, Rainfall | Modular sensors or an integrated 6-parameter weather sensor |
| Agricultural Weather Station | Core Weather + Rainfall + Solar Radiation + Soil Moisture / Temperature + Leaf Wetness as required | Sensors + Data Logger + Remote Communication + Optional Solar Power |
| Environmental Monitoring Station | Weather + PM2.5 + PM10 + Noise + CO2 according to project | Weather / Environmental Sensors + IoT Gateway |
| Hydrometeorological Station | Weather + Rainfall + Optional Water Level / Flow | Weather Sensors + Hydrological Sensors + Telemetry |
| Research Station | Core Weather + Pyranometer / PAR + Project-Specific Sensors | Modular Independently Selected Sensors |
The data logger or IoT gateway is the central data-acquisition component of a remote weather station. It receives measurements from connected sensors, manages data collection intervals and can provide local storage or remote communication depending on the selected model.
RS485 Modbus RTU is commonly used for digital weather sensors. Multiple compatible sensors can share an RS485 network when each device uses a unique address and the data logger is configured with appropriate communication and polling settings.
For compatible acquisition equipment, see theweather station data loggeroptions.
The communication method should be selected according to the installation site and final data destination. Remote communication is normally handled by the data logger or gateway rather than by the individual RS485 sensor.
| Communication | Typical Site | Selection Consideration |
| 4G | Remote farms, hydrology and environmental stations | Requires compatible cellular coverage and SIM/data service |
| Ethernet | Factories, campuses and fixed facilities | Suitable where a wired network is available |
| Wi-Fi | Greenhouses, buildings and managed sites | Requires reliable Wi-Fi coverage at the station |
| LoRaWAN | Distributed low-power sensor networks | Requires compatible nodes, sensors and gateway architecture |
An automatic weather station can be configured for cloud monitoring or integration with the customer's own server when supported by the selected data logger or IoT gateway.
Weather Sensors → RS485 Modbus RTU → Data Logger / IoT Gateway → 4G / Ethernet / Wi-Fi → MQTT / HTTP → Cloud Platform or Private Server
For private-server projects, provide the required protocol, data format, reporting interval and security requirements before equipment selection. This allows the logger or gateway configuration to be confirmed before the system is supplied.
A solar powered automatic weather station is suitable for remote monitoring locations where stable mains power is unavailable. The system normally combines a solar panel, battery and power-management equipment with the weather sensors and data logger.
Solar-panel and battery capacity should be calculated from the actual power consumption of the sensors, logger and communication equipment, together with the reporting interval, installation location and required backup duration during periods of limited sunlight.
When requesting a solar-powered system, provide the station location, selected sensors, communication method and required autonomy so the power system can be matched to the actual load.
There is no single automatic weather station price because the final cost depends on the sensor package, data logger, communication method, power system, installation hardware and project documentation.
| Price Factor | What Changes the Configuration |
| Measurement Parameters | Number and type of weather, agricultural or environmental sensors |
| Sensor Type | Separate modular sensors or an integrated ultrasonic weather sensor |
| Data Logger | Number of interfaces, local storage and communication requirements |
| Communication | Local monitoring vs 4G, Ethernet, Wi-Fi or LoRaWAN |
| Power Supply | Existing power vs solar panel and battery system |
| Mounting Hardware | Pole height, brackets, enclosure and site-specific accessories |
| Calibration / Documentation | Project-specific calibration, test report or certification requirements |
| Quantity & Shipping | Number of stations, destination country and shipping method |
Correct installation is important for representative weather measurements. The station should be positioned according to the parameters being monitored and any applicable project or meteorological installation requirements.
| Installation Item | Recommendation |
| Site Selection | Choose an open and representative monitoring location. |
| Wind Sensors | Avoid nearby buildings, trees, poles and other obstacles that create turbulence or wind shielding. |
| Rain Gauge | Install level with unobstructed exposure to rainfall and keep the collector opening clean. |
| Temperature / Humidity | Use a representative ventilated position with appropriate radiation protection. |
| Pyranometer / PAR | Maintain correct leveling and avoid unintended shading. |
| Solar Panel | Install where sufficient solar exposure is available. |
| Maintenance Access | Allow safe access for cleaning, inspection, calibration and battery maintenance. |
As anautomatic weather station supplier, NiuBoL can configure sensor, communication and power combinations for different monitoring projects rather than limiting every station to one fixed set of parameters.
Agricultural Monitoring • Meteorological Stations • Environmental Monitoring • Hydrology & Flood Monitoring
Airports & Transportation • Solar Energy • Research Stations • Industrial Monitoring

The fastest way to select the correct AWS is to define the required measurements and system architecture before comparing individual sensor models.
| Selection Item | Information to Confirm |
| Measurement Parameters | Temperature, humidity, pressure, wind, rainfall, radiation, soil, air-quality or other required parameters |
| Range & Accuracy | Required measurement ranges, resolution, accuracy and any applicable technical standard |
| Sensor Architecture | Separate modular sensors or an integrated ultrasonic sensor |
| Communication | 4G, Ethernet, Wi-Fi, LoRaWAN or local-only data collection |
| Data Destination | Cloud platform, private server, PLC / SCADA or local storage |
| Power Supply | Existing AC/DC power or solar panel + battery |
| Installation | Pole height, mounting location, enclosure, cable lengths and environmental conditions |
| Quantity | Trial quantity, total number of stations and future deployment requirements |
A1. A standard AWS commonly measures temperature, humidity, atmospheric pressure, wind speed, wind direction and rainfall. Solar radiation, PAR, soil parameters, PM2.5, PM10, CO2, noise, visibility, snow depth and other measurements can be added according to the project.
A2. A complete remote AWS normally includes a compatible data logger or IoT gateway for sensor acquisition, data storage and communication. The specific model depends on the number of sensors, required interfaces and data destination.
A3. Yes, when the station uses a compatible 4G data logger or IoT gateway. Individual RS485 sensors do not need their own cellular modem.
A4. Yes, depending on the selected logger or gateway. Provide the required protocol, data format, reporting interval and security requirements before system selection.
A5. Yes. A solar panel and battery system can be configured for remote sites. The required capacity should be calculated from the actual system load and required backup duration.
A6. A modular weather station uses individually selected sensors that can be installed and replaced separately. An integrated ultrasonic weather sensor combines several parameters into one compact housing and measures wind without conventional rotating cups or a mechanical wind vane.
A7. Yes. Compatible Modbus sensors can share an RS485 bus when each device uses a unique address and the logger, power supply and polling intervals are configured correctly.
A8. Pricing depends on the required sensors, data logger, communication method, solar and battery system, mounting hardware, documentation requirements and quantity. A defined configuration is required for an accurate quotation.
A9. Yes. Soil moisture, temperature, EC, pH and other agricultural sensors can be added when the selected data logger supports the required interfaces.
A10. Provide the required measurement parameters, quantity, installation country and site conditions, power availability, communication method, cloud or private-server requirements, mounting requirements, cable lengths and any calibration or certification requirements.
For an accurate quotation, provide the required measurement parameters, number of stations, installation location, communication method, available power supply, cloud or private-server requirements, mounting requirements and any calibration or certification requirements.
For remote projects, also specify whether 4G, Ethernet, Wi-Fi or LoRaWAN communication is required and whether the site has an existing power supply or requires a solar panel and battery system.
Sensors & Weather Stations Catalog
Agriculture Sensors and Weather Stations Catalog-NiuBoL.pdf
Weather Stations Catalog-NiuBoL.pdf
Agriculture Sensors Catalog-NiuBoL.pdf
Water Quality Sensor Catalog-NiuBoL.pdf
Related recommendations
Multi-Depth Soil Sensor RS485
TDR Soil Moisture Sensor
Pyranometer Solar Radiation Sensors
Soil ph sensor
Tipping Bucket Rain Gauge
Air Temperature and Humidity Sensor
Screenshot, WhatsApp to identify the QR code
WhatsApp number:+8615367865107
(Click on WhatsApp to copy and add friends)