Global Water RG600 Tipping Bucket Rain Gauge
Features
- Constructed of anodized aluminum
- Reliable, highly accurate, and simple to operate
- Rugged and long lasting
- Free ground shipping
- Expedited repair and warranty service
- Lifetime technical support
- More
Overview
The Global Water RG600 Tipping Bucket rain gauge is a durable weather instrument for monitoring rain rate and total rainfall. With minimal care, the tipping bucket will provide many years of service. All Global Water tipping buckets were designed by the National Weather Service to provide a low-investment, reliable, industrial, tipping bucket rain gauge.
Mechanics
Its simple design assures trouble-free operation, yet provides accurate rainfall measurements. The tipping bucket has an 8" orifice and is shipped complete with mounting brackets and 25 ft. of 2-conductor cable. The tipping bucket sensor mechanism activates a sealed reed switch that produces a contact closure for each 0.01" or 0.2 mm of rainfall. The tipping bucket rain gauge can be pole-mounted or bolted to a level plate.
- Capacity: Unlimited
- Accuracy: +/-1% at 1 inch per hour
- Average Switch Closure Time: 135 ms
- Maximum Bounce Settling Time: 0.75 ms
- Maximum Switch Rating: 30 VDC @ 2A, 115 VAC @ 1 A
- Operating Temperature: 32 to +123.8 F (0 to +51 C)
- Dimensions: 10.125" x 8" inch (26cm x 20cm)
- Shipping Weight: 8 lbs. (3.6 kg)
- Cable: 25 ft (7.6 m), 2 conductor
- (1) Tipping bucket rain gauge
- (1) Set of mounting brackets
- (1) 25 ft. length of 2-conductor cable
In The News
Desert Weather Extremes Create Plant Winners And Losers
Researchers at Arizona State University, studying in the Chihuahan desert of New Mexico, have made some interesting finds related to ecosystem “tipping points.” The term refers to the points at which areas are changed beyond what is typical for them, practically creating new ecosystems where some life forms dominate and others falter. 
 
The scientists approached the issue by setting up 50 different study plots in the desert. These were laid out within the Jornada Basin Long Term Ecological Research site and incorporated gear like tipping bucket rain gauges, data loggers and custom constructions that redirected and cut off water as needed for study treatments.
Read MoreClimate 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 More