Award Date


Degree Type


Degree Name

Master of Science in Electrical Engineering (MSEE)


Electrical and Computer Engineering

First Committee Member

Yingtao Jiang

Second Committee Member

Biswajit Das

Third Committee Member

Mei Yang

Fourth Committee Member

Hui Zhao

Number of Pages



In the environments of high temperature (300o C - 1000o C), corrosive and even irradiation application, the challenges of providing reliable and accurate flow rate measurement is significant. In comparing with many other existing technologies for normal operation environments, correlated thermal transit-time flow meter show its advantages of resolving the challenges encountered in those harsh conditions. The correlated thermal signals can be detected by two separated thermal sensors (for example, thermocouples) in series alignment along the pipe, and derive the flow rate. It was evaluated to have accurate measurement for small pipe at slow fluid speed. In the higher flow rate and big pipe size application, this technology shows its weakness due to the limitations associated with slow response time of thermal sensor, dimension, and low strength of thermal signal. In this project, we present a sophisticated layout of thermal transit-time flow meter with validation of numerical simulation and experiments. We observed that the simulation results are in good agreement with the experimental results and showing that the measured flow is successfully extended to high range and with stable and accurate measurement results. Also, the linear hypothesis of ratio between the bypass to the main flow was successfully tested.


Flow meters; Signal detection; Thermal Signals; Thermocouples


Electrical and Computer Engineering | Mechanical Engineering

File Format


Degree Grantor

University of Nevada, Las Vegas




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