KISTERS TB4 Series II Tipping Bucket Rain Gauge
Features
- Long-term stable calibration
- Accuracy not affected by rainfall intensity
- Minimal maintenance required
- Free ground shipping
- Expedited repair and warranty service
- Lifetime technical support
- More
Overview
The KISTERS TB4 Series II is a high-quality tipping bucket rain gauge for measuring rainfall in urban and rural locations. Due to the integrated siphon, the gauge delivers high levels of accuracy across a broad range of rainfall intensities. Maintenance of the TB4 Series II is easy due to the quick-release fasteners.
Design
The tried and proven design of the TB4 Series II ensures long-term, accurate and repeatable results. It is manufactured from high-quality, durable materials, ensuring long-term stability in the harshest of environments. The rain gauge consists of a robust powder-coated aluminum enclosure, a UV-resistant ASA polymer base, a Teflon bucket, stainless steel fasteners, and a finger filter.
TB4 Series II provides a finger filter that ensures the collector catch area remains unblocked when leaves, bird droppings and other debris find their way into the catch. The base incorporates two water outlets at the bottom allowing for water collection and data verification.
TB4 Series II includes a dual output 24 V DC reed switch allowing for output redundancy or the addition of a second data logger. The reed switch incorporates varistor protection against surges that may be induced on long, inappropriately shielded signal cables.
Resolution | 0.1 mm, 0.2 mm, 0.5 mm, 1.0 mm, 0.01 inch |
Accuracy |
|
Range | 700 mm per hour |
Material |
|
Pivots | Field-proven high-quality sapphire pivots: long-life, free from corrosion |
Dimensions & Mass |
|
Environmental Conditions | Operating Temperature Range: +4 °C to +7O °C; Humidity: 0-100 % |
In The News
Save our Bogs! Culture, Conservation and Climate Action in Ireland’s Peatlands
Characterized by long-term accumulation under waterlogged conditions, peatlands exist on every continent and account for 3-4% of the global land surface . Small but mighty, these often overlooked wetland environments are estimated to hold as much as one-third of the world's organic carbon in their soil—twice the amount found in the entirety of the Earth's forest biomass. While healthy peatlands can trap and store carbon, regulate water, and provide important habitats for rare species, human alteration has disturbed peatland carbon and nitrogen cycles on a global scale. Approximately 12% of the world’s peatlands have been drained and degraded through conversion for agriculture, forestry, infrastructure development, and other uses.
Read MoreSargassum Surge: How Seaweed is Transforming our Oceans and Coastal Ecosystems
Until recently, Sargassum –a free-floating seaweed–was distributed throughout the Sargasso Sea , the north Caribbean Sea, and the Gulf of Mexico. But in the space of a decade, this seaweed has, as one scientist remarks , “Gone from a nonfactor to the source of a terrible crisis.” Driven by climate change, anomalous North Atlantic Oscillation in 2009-2010 and a glut of anthropogenic pollutants, sargassum has proliferated. Seasonally recurrent mats as deep as 7m now bloom in the “Great Atlantic Sargassum Belt” (GASB), which covers areas of the Atlantic from West Africa to the Caribbean Sea and Gulf of Mexico. Every year, millions of tons wash up along the shores of more than 30 countries . Dr.
Read MoreGreat Lakes Research Center: Designing Targeted Monitoring Solutions
According to the National Oceanic and Atmospheric Administration ( NOAA ), the Great Lakes have more miles of coastline than the contiguous Atlantic and Pacific coasts combined and contain 20 percent of the world's freshwater, making it a critical region to protect and conserve. Continuous monitoring and data-informed resource management are key components of managing waters in the region. Hayden Henderson, a research engineer with the Great Lakes Research Center (GLRC), designs and deploys monitoring platforms throughout the Great Lakes. With a background in environmental engineering, Henderson enjoyed the challenge of creating systems and making them work to obtain difficult, remote measurements.
Read More