KestrelMet 6000 Wireless Weather Stations
Features
- Measures key weather parameters with wireless Wi-Fi or cellular communication
- Optional leaf wetness, solar irradiance, and soil moisture sensors
- First year of cellular data plan is included at no additional cost
- Expedited repair and warranty service
- Lifetime technical support
- More
Overview
The KestrelMet 6000 is a reliable cost-effective all-in-one professional weather station for commercial, industrial, educational, and research applications. Easily deployable and remote, the KestrelMet arrives pre-assembled for fast set up and frustration-free installation. Cellular versions of the KestrelMet 6000 include a low-cost cellular plan with the first year free.
Mounting Options
Choose between the Mono Mount Kit or the Tripod Mount Kit to best fit research needs. Both options offer quick installation and a secure mounting system. The Mono Mount can be used on a pitched or flat roof as well as a vertical surface such as a gable end. The Tripod can be used on flat terrain, on a flat roof, or on the ridge of a pitched roof.
Design
Solar radiation can cause measurement errors and reduce sensor accuracy. Shielding over the air temperature and relative humidity sensors and a 24-hour aspirated fan keep air moving constantly over the sensors. This results in a significant improvement in measurement accuracy versus passive-shielded weather stations with no aspiration fan.
*Note: cellular transmission is set at 15-minute intervals.
Sensors | Accuracy (+/- | Resolution | Range | Notes |
Wind Speed | larger of 5% or 1 mph between 1 to 57 mph | 0.1 mph 0.1 knot 0.1m/s 0.1 km/hr |
1 to 100 mph 1 to 86.9 knots 1 to 44.7 m/s 1 to 160.9 km/hr |
Wind speed is measured continuously and stored in station memory as a series of 2 second averages. The reported wind speed is the average over the 15 minute logging interval. The highest measured speed during the logging interval is reported as the gust value. |
Wind Direction | 2° | 1° | 1° - 360° | Wind direction is measured continuously and stored in station memory as a series of 2 second averages. The reported wind direction is the average scalar direction over the 15 minute logging interval. The gust direction is the average scalar direction for the 2 second record corresponding to the gust value. |
Temperature |
0.45° F |
0.1° F 0.1° C |
-40° to 140° F -40° to 60° C |
Temperature is measured once per minute. The reported temperature is the average value for the 15 minute logging interval. High and low temperatures are based on the 1-minute readings. |
Relative Humidity | 1.5% between 0 - 80% | 1% | 0 to 100% | Humidity is measured once per minute. The reported humidity is the average value for the 15 minute logging interval. High and low RH are based on the 1-minute readings. |
Absolute Pressure | 1.5 mbar/hPa 0.044 inHg 1.1 mmHg |
0.1 mbar/hPa 0.01 inHg 0.1 mmHg |
600 to 1100 mbar/hPa 17. 72 to 32.48 inHg 450.0 to 825.1 mmHg |
Pressure is measured once per minute. The reported pressure is the average value for the logging interval. High and low pressures are based on the 1-minute readings. |
Rain Rate | 5% at 2"/hr | 0.01 in/hr 0.1 mm/hr |
0 to 7.8 in/hr | Rainfall is measured continuously in 0.2 mm increments (tipping bucket calibration volume) |
In The News
Climate Change and Microplastics: Monitoring Lake Champlain
Most people go to Lake Champlain for its exceptional views and thrilling boating, but it’s also home to a wide variety of interesting aquatic research projects. From studying microplastics to thermal dynamics of the lake, Timothy Mihuc, director of the Lake Champlain Research Institute (LCRI) at the State University of New York at Plattsburgh (SUNY Plattsburgh), has spent his career studying aquatic ecosystems. 
 
 As an aquatic biologist, he’s the main investigator on Lake Champlain’s research studies while also managing their grants, employees, and their hands-on buoy work. 
 
 Over the years, LCRI has received a number of environmental grants that aid in its monitoring research.
Read MoreCurrent Monitoring after the Francis Scott Key Bridge Collapse
On March 26th, according to The Baltimore Sun , a 984-foot, 112,000-ton Dali lost propulsion and collided with a support column of the Francis Scott Key Bridge, collapsing the structure. Soon after the event, search and rescue, salvage crews, and other emergency responders were mobilized after the collision. 
 
As salvage efforts progressed in early April, NOAA’s Center for Operational Oceanographic Products and Services (CO-OPS) responded to a request for real-time tidal currents data and deployed a current monitoring buoy—CURBY (Currents Real-time BuoY)—into the Patapsco River north of the Francis Scott Key Bridge.
Read MoreSoundscapes of the Solar Eclipse: Citizen Science Supporting National Research
On April 8, 2024, millions of people around the world had their eyes glued to the sky to witness a historic cosmic event. The total solar eclipse captured the headlines and the minds of many who became eager to gaze at the heavens as the sky went dark for a few minutes. However, not everyone used their sense of sight during the eclipse, some were listening to the sounds of the natural world around them as the light faded from above. 
 
 The Eclipse Soundscape Project is a NASA-funded citizen science project that focuses on studying how the annular solar eclipse on October 14, 2023, and the April 8, 2024 total solar eclipse impacted life on Earth. 
 
 The project revisits an initiative from the 1930s that showed animals and insects are affected by solar eclipses.
Read More