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Water/Wastewater


Bubbler Module Teledyne Isco’s TIENetTM


330 Bubbler


Module technology is ideal in flow streams affected by harsh weather, debris, or corrosive chemicals. Since the depth of flow is determined by measuring the pressure needed to force


bubbles out of the line, you are able to calculate flow rate using one of the meter’s built-in flow conversions, or a user-defined level-to-flow relationship.


Reader Reply Card No. 190


Continuous-wave Doppler Teledyne Isco’s TIENetTM


350 Area Velocity


Sensor continuously transmits an ultrasonic signal into the flow stream. The signals are reflected off bubbles and particles, and then return to the sensor with a frequency shift (Doppler effect) which is proportional to velocity. A differential pressure transducer in the sensor measures liquid depth in order to determine the wetted area. Flow rate is then calculated by multiplying the wetted area of the flow stream by its average velocity.


Reader Reply Card No. 189


35


Non-contact Ultrasonic


 





 If you are experiencing any of the following —


   


With the Teledyne Isco TIENetTM 310 Ultrasonic


Level Sensor mounted above the flow stream, transmitted sound pulses are reflected off the liquid surface. The elapsed time between transmitted and returned signals determines liquid level. Flow rate is then calculated using one of the meter’s built-in flow conversions, or a user- defined level-to-flow relationship.


Reader Reply Card No.


Non-contact LaserFlow™ Velocity Sensor


191 


   


Laser Doppler velocity sensor is a first in non- contacting flow measurement technology for open channels. Teledyne Isco’s LaserFlow Velocity Sensor utilises technology that sees below the surface. Velocity measurements are achieved by penetrating the surface for multipoint subsurface velocity readings. A non-contacting ultrasonic transmitter measures the liquid head height to determine the wetted area. Multiplying the wetted area by the average velocity yields the flow rate. Flow during surcharge conditions can be measured with an optional, integrally- mounted continuous-wave Doppler area velocity sensor.


Reader Reply Card No. 192


Choose Your Open Channel Flow Measurement Technology: Choose the right technology for your application – Area velocity, bubbler, ultrasonic, or laser.


Choose Your Inputs/Outputs: Easily add external Modbus and SDI-12 devices to aggregate and deliver your data.


Choose Your Interfaces: Bridge the connection to nearly any peripheral device using industry-standard protocols and access data via USB, Ethernet, analog output, or cellular modems.


Choose Savings: Accomplish redundant measurements or multiple channel measurements with a single meter to save costs. Save time by collecting and reporting aggregated data from a single source.


Choose Security: T e Signature meter provides data integrity, unalterable data reports, diagnostic tools, and confi gurable alarms.


See the meter in action at WEFTEC 2012 or contact us today for a quote or more information.


 


     





Reader Reply Card No.


193 www.envirotech-online.com IET September / October 2012


WEFTEC Booth #4535 See more at


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