Temperature transducers are commonly used to monitor process parameters that are controlled by various types of industrial controllers. The purpose of this study is to design and model a simple microcontroller-based acoustic temperature transducer based on the variations of resonance conditions in a cylindrical resonance tube. The transducer's operation is based on the generation of an acoustic standing wave in the free resonance mode of generation within a cylindrical resonance tube which is converted into a train of pulses using Schmitt trigger circuit. The frequency of the generated standing wave (i.e., the train of pulses) is measured by the Arduino Uno microcontroller, where a digital pin is used to acquire pulses that are counted using a build-in software function in an Arduino IDE environment. Experimental results are performed for three sizes of diameters to investigate the effect of the diameter of resonance tube on the obtained results. The maximum nonlinearity error according to Full-Scale Deflection (FSD) is about 2.3 percent, and the relative error of the transducer is evaluated using experimental findings and the regression model. The circuit simplicity and design of the suggested transducer, as well as the linearity of its measurements, are notable.

Department of Electrical and Electronics Engineering Al Balqa Applied University Al Salt 19117 Jordan

Department of Electrical Engineering Faculty of Engineering Technology Al Balqa Applied University Al Salt 19117 Jordan

Department of Electrical Engineering Information and Measurement Technologies Chernihiv Polytechnic National University 14030 Chernihiv Ukraine

Department of Electricity Supply and Energy Management State Biotechnological University 61052 Kharkiv Ukraine

Department of Materials Science and Engineering of Composite Structures O M Beketov National University of Urban Economy in Kharkiv Marshal Bazhanov Str 17 61002 Kharkiv Ukraine

Department of Mechatronics Engineering Faculty of Engineering Technology Al Balqa Applied University Al Salt 19117 Jordan

Institute of Automotive Engineering Brno University of Technology Technická 2896 2 616 69 Brno Czech Republic

Research Institute of Electronics and Microsystem Technology National Technical University of Ukraine Igor Sikorsky Kyiv Polytechnic Institute 03056 Kyiv Ukraine

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