Design of a Simulation Model of a Temperature Sensor under Critical Temperature and Sinusoidal Vibrations

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Author: Трофимов Алексей Анатольевич , Фокина Екатерина Александровна , Пономарёв Владислав Николаевич , Здобнов Сергей Александрович 
Annotation: Vibration measurement is among the most popular and cost-effective methods for diagnostics of the overall condition of equipment and is of undeniable importance in modern technology. Thanks to this process, manufacturers and consumers can be sure of the reliability and quality of technical systems, as well as prevent possible malfunctioning and failures. Vibration measurements in various fields confirm their versatility and importance in modern technical progress. The measurement of the effects of critical temperatures on a temperature sensor is aimed at determination of possible changes in the accuracy and reliability of the sensor. This will improve the quality of temperature measurement, eliminate inaccuracies and errors in operation of equipment, and increase the efficiency of the equipment under various operating conditions. The research method in this paper is a simulation model of the sensor, which is used to test for vibration and exposure to critical temperatures. Ansys and SolidWorks Simulation software are used to create the model to avoid costly and time-consuming test cycles. The results of the simulation modeling are used to construct diagrams of mechanical stress distribution under sinusoidal vibration and diagrams of temperature distribution under critical temperatures.
Type: Article
Kind: Electronic copy
Parts: 1
The year of publishing: 2024
Publishing house: Pleiades Publishing
Publishing place: Журнал Technical Physics
The target audience: Researcher
Special purpose: Scientific
Copyright holder: Трофимов А.А., ПГУ
DOI: 10.1134/S1063784224701093
Bibliographic reference: Trofimov A.A., Fokina, E.A., Ponomarev, V.N., Zdobnov S.A. Design of a Simulation Model of a Temperature Sensor under Critical Temperature and Sinusoidal Vibrations // Technical Physics Volume 69, No. 11, pp. 2620–2625 (2024).
Pages: 2620-2625
Url: https://link.springer.com/article/10.1134/S1063784224701093. Springer Nature
Language: English
Post date:09.10.2025