digitalYEWFLO High process Temperature Version / Cryogenic Version

The long term reliability of the digitalYEWFLO series also extends to the High Process Temperature and Cryogenic models.
With the High Process Temperature model, process fluids with temperatures as high as 450 degrees C can be accurately measured, this is ideal for your high temperature superheated and saturated steam applications.
The Cryogenic model can measure processes at temperatures down as low as -196 degrees C, ideal for low temperature applications such as liquid oxygen.

New functions with Spectral Signal Processing (SSP) technology

• SSP analyses the fluid conditions inside the digitalYEWFLO vortex flowmeter and uses the data to automatically select the optimum adjustment for the application, providing features never seen before in a vortex flowmeter.
• SSP accurately senses vortices in the low flow range, providing outstanding flow stability.

Advanced self-diagnostics

• Application conditions such as high pipeline vibration and abnormal flow are predicted and indicated.

High accuracy

• ±0.75% of reading (liquid)
• ±1.0% of reading (gas, steam)

Wide process temperature range

• High temperature version up to 450 deg C
• Cryogenic version minimum -196 deg C

Simple parameter settings

• Frequently-used selections grouped together in a quick-access format decrease commissioning time

Clear, concise indicator

• Convenient display of the simultaneous and total flow rates together with the process diagnosis

Dual output for analog/pulse

• Simultaneous output for flow rate and pulse

Alarm output

• An alarm signal is output when an alarm occurs.

BRAIN/HART communication and key switches for human-machine interface

NACE compliant

NAMUR 43 compliant

Remote cable length up to 30m

Sleep better knowing that your Yokogawa cryogenic digitalYEWFLO vortex meters have the durability and reliability that you can count on.

Durability

Durability through simple design and construction.

Advanced Self-diagnostics

Provides diagnostic messaqges on high vibration enviroments, excessive flow fluctuations, and clogging or pluggingin the area around the shedder bar. Analysis of the process allows true condition-based maintenance.