Gas-Liquid Two-Phase Flow Velocity Measurement With Continuous Wave Ultrasonic Doppler and Conductance Sensor

Flow velocity is an important process parameter that quantifies the volume or mass flow rate as well as monitors the process safety. To nonintrusively measure the flow velocity of horizontal gas-liquid two-phase flow, an ultrasonic Doppler sensor and a conductance sensor with dedicated measurement m...

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Veröffentlicht in:IEEE transactions on instrumentation and measurement 2017-11, Vol.66 (11), p.3064-3076
Hauptverfasser: Dong, Xiaoxiao, Tan, Chao, Dong, Feng
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container_title IEEE transactions on instrumentation and measurement
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creator Dong, Xiaoxiao
Tan, Chao
Dong, Feng
description Flow velocity is an important process parameter that quantifies the volume or mass flow rate as well as monitors the process safety. To nonintrusively measure the flow velocity of horizontal gas-liquid two-phase flow, an ultrasonic Doppler sensor and a conductance sensor with dedicated measurement models are presented. The air superficial flow velocity can be directly obtained and the water superficial flow velocity can be calculated through a two-fluid model for bubble flow and plug flow. For slug flow, a correlation between the phase velocity in slug body and overall superficial flow velocity was built based on a slug closure model. In order to eliminate the influence of the changing velocity profile in the fluid, the sample volume was designed to cover the whole pipe cross section by installing a two-chip piezoelectric transducer with 1-MHz center frequency at the bottom of the pipe. The conductance sensor provided water holdup estimate to compensate the velocity measurement model. Experiments were carried out in a 50-mm inner diameter pipe to verify the proposed sensor and model. Three flow patterns (bubble flow, plug flow, and slug flow) were generated by adjusting the inlet flow rate of the air and the water. The results show that the mean relative error can achieve within 5%.
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To nonintrusively measure the flow velocity of horizontal gas-liquid two-phase flow, an ultrasonic Doppler sensor and a conductance sensor with dedicated measurement models are presented. The air superficial flow velocity can be directly obtained and the water superficial flow velocity can be calculated through a two-fluid model for bubble flow and plug flow. For slug flow, a correlation between the phase velocity in slug body and overall superficial flow velocity was built based on a slug closure model. In order to eliminate the influence of the changing velocity profile in the fluid, the sample volume was designed to cover the whole pipe cross section by installing a two-chip piezoelectric transducer with 1-MHz center frequency at the bottom of the pipe. The conductance sensor provided water holdup estimate to compensate the velocity measurement model. Experiments were carried out in a 50-mm inner diameter pipe to verify the proposed sensor and model. Three flow patterns (bubble flow, plug flow, and slug flow) were generated by adjusting the inlet flow rate of the air and the water. 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subjects Acoustics
Atmospheric modeling
Conductance sensor
Continuous radiation
continuous wave ultrasonic doppler (CWUD)
Doppler shift
Flow velocity
gas–liquid two-phase flow
Inlet flow
Mass flow rate
Phase velocity
Piezoelectricity
Pipes
Plug flow
Process parameters
Resistance
Sensors
slug closure model
Slug flow
superficial flow velocity
Two fluid models
Two phase flow
two-fluid model
Ultrasonic imaging
Ultrasonic variables measurement
Velocity distribution
Velocity measurement
title Gas-Liquid Two-Phase Flow Velocity Measurement With Continuous Wave Ultrasonic Doppler and Conductance Sensor
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