Geolux Non-Contact Surface Velocity Sensor

The Geolux Non-Contact Surface Velocity Sensor uses radar technology for providing contactless measurement of velocity for water level, flood, and discharge monitoring applications.

Features

  • Contactless surface velocity measurement
  • RS-232, RS-485 Modbus, analog 4-20 mA interfaces in all models
  • Robust, small-size IP68 enclosure
Your Price $2,907.00
Stock 1 AVAILABLE

Overview
The Geolux Non-Contact Surface Velocity Sensor uses radar technology for providing contactless measurement of velocity for water level, flood, and discharge monitoring applications.

Mechanics
Contactless radar technology enables quick and simple sensor installation above the water surface with minimum maintenance. The radar operates in K-band (24.075 GHz to 24.175 GHz) and provides velocity readings 10 times per second over serial RS-232, RS-485 Modbus, and analog 4-20 mA output. The instrument is easily integrated with third-party dataloggers and all of the settings can be remotely configured. An integrated MEMS sensor is used for automatic angle compensation. Internal vibration monitoring and SNR calculation can be used for measurement quality assessment.

General Specifications
Radar Type: K-band 24.075 GHz to 24.175 GHz Doppler radar, 20 dBm EIRP
Beam Angle: 12° Azimuth; 24° Elevation
Detection Distance: Up to 20m above the water
Speed Range: 0.02m/s to 15m/s
Resolution: 0.001m/s
Accuracy: 1%
Sampling Frequency: 10 samples per second
IP Rating: IP68

Electrical & Mechanical
Input Voltage: 9 to 27 VDC
Power Consumption: 950 mW operational, 85 mW standby
Max Current: < 250 mA
Temperature Range: -40 °C to +85 °C (without heating or coolers)
Device Outer Dimensions: 110mm x 90mm x 50mm

Interface
Serial Interface: 1 x serial RS-485 half-duplex; 1 x serial RS-232 (two wire interface)
Serial Baud Rate: 9600 bps to 115200 bps
Serial Protocols: GLX-NMEA, Modbus
Analog Output: 1 x 4-20 mA
Connector: M12 circular 12-pin

Certificates
EN 60950-1:2006+A1:2010+A11:2009+A12:2011+A2:2013
EN 62311:2008
EN 301 489-3 V2.1.1:2019
EN 301 489-1 V2.2.3:2019
EN 61000-6-2:2019
EN 61000-6-3:2021
EN 6100-6-2:2017
EN 300 440 V2.2.1:2018
EN 62368-1:2014+A11:2017
EN 62311:2008
EN 60529:2000+A1:2008+A2:2014 IP68
FCC Part 15 class B
ISED RSS210

Questions & Answers
No Questions
Did you find what you were looking for?

Select Options

  Products 0 Item Selected
Image
Part #
Description
Price
Stock
Quantity
Geolux Non-Contact Surface Velocity Sensor
RSS-2-300W
Non-contact radar surface velocity sensor, 15m range, 10m cable (mounting bracket sold separately)
$2,907.00
1 Available
  Accessories 0 Item Selected
Notice: At least 1 product is not available to purchase online
×
Multiple Products

have been added to your cart

There are items in your cart.

Cart Subtotal: $xxx.xx

Go to Checkout

In The News

Testing CO2 Removal Strategies in the Pacific Northwest

The ocean plays a key role in carbon dioxide (CO2) removal and storage, also known as carbon sequestration. However, with increasing emissions, a large amount of CO2 escapes into the atmosphere, worsening climate change and leading to increases in surface temperatures. In order to mitigate some of these impacts, researchers like Ally Savoie at the Pacific Northwest National Laboratory (PNNL) are working hard to identify ways to safely improve the CO2 removal and storage capabilities in the ocean. Savoie started her career at Wright State University , where she worked in Silvia Newell’s lab examining biogeochemical cycling of nutrients in a river system. From there, she decided to pursue a master’s in marine science at the University of Southern Mississippi with Dr.

Smart Buoys Advance Climate Monitoring in Swiss Lakes

Lakes are sentinels of climate change . Globally, they are warming at an unprecedented but uneven rate, and in many places they also face direct human pressure, including from agriculture and recreation. In the Alps, scientists generally agree that climate change is of particular threat to remote lakes , where more pronounced warming threatens fragile ecosystems. Alpine Lakes in a Changing Climate Matteo Tonellotto is part of the team at the Environmental Observatory of the Italian-speaking region of Switzerland (OASI)–a multidisciplinary team of scientists, IT specialists, and chemical laboratory technicians committed to collecting, managing, and integrating high-quality environmental data.

Connecting with Nature in Real-Time at the Abernathy Field Station

Just five miles away from Washington and Jefferson (W&amp;J) College is the 57-acre Abernathy Field Station . Generously donated by the Abernathy family in 2017, the field station has served as an outdoor lab to hundreds of undergraduate students over the years. Many classes use the Abernathy Field Station every week. For example, in BIO 111, students spend 15 weeks conducting their own research at the field station using a combination of sampling, field observations, and real-time environmental data, giving them a look into the world of science and a closer relationship with nature. “We like to start the students in the research process in their first Biology class.

Riding the Renewable Wave: Testing Wave Energy Converters at Oregon’s PacWave Site

Seven miles off Oregon’s weather-beaten coastline, the world’s biggest wave power testing facility, PacWave, is primed to put the latest renewable energy technology to the test. “There is a huge amount of energy that is not harvested in the ocean,” states the team at Oregon State University involved in the PacWave project. When it comes to harnessing the power of the waves, “It's exciting because it [wave power] is a non-polluting, non-carbon burning technology,” the team says. Wave Power The U.S. Energy Information Administration explains that tidal energy harnesses the flow of seawater in depth under the gravitational forces exerted by the sun and moon–the drivers of tides–while wave energy derives from the kinetic energy of wind-blown surface waves.