Моделирование и анализ работы системы накопления пьезоэлектрической энергии при помощи программной среды Matlab/Simulink

F M Al-Rufai; B A Yakimovich; V V Kuvshinov; A A Al-Saidi; D F Bordan

doi:10.22213/2410-9304-2022-3-24-33

Authors

F. M. Al-Rufai Sevastopol State University
B. A. Yakimovich Sevastopol State University
V. V. Kuvshinov Sevastopol State University
A. A. Al-Saidi National Research University MPEI
D. F. Bordan Sevastopol State University

DOI:

https://doi.org/10.22213/2410-9304-2022-3-24-33

Keywords:

Matlab/Simulink, vibration, piezoid, energy collection, modelling

Abstract

The interest among researches to electric energy production from vibration energy transformation has been increased recently due to the need of connection of special electronic equipment to the energy source, such as remote sensing system, enabling maintenance and battery change at specified time cost reduction. High energy thickness and sure vibration characteristics of piezoelectric materials increased the application area where low power is required. Energy collection from piezoids is a technology that transforms available environment energy into electric one. Vibration energy collection is preferred since various amplitude and frequency vibrations are available in environment. Vibration energy collectors of piezoelectrical type are widely used due to their simplicity of operation and compatibility with small electromechanical system production technology. A software Matlab / Simulink was used for modelling and analysis of piezoelectric system operation for the present research. The program allowed to develop a model of piezoelectric system. The results of modelling showed the possibility of application of such systems for the required energy production in low-power equipment. This is especially important that these piezoelectrical technologies can be applied for electric energy supply of off-grid individual consumers in the remote districts of the Russian Federation. It is possible since technologies are suitable for application during battery charge, which is especially important for individual household and private houses in various districts of our country.

Author Biographies

F. M. Al-Rufai, Sevastopol State University

Postgraduate Student

B. A. Yakimovich, Sevastopol State University

DrSc in Engineering, Professor

V. V. Kuvshinov, Sevastopol State University

PhD in Engineering, Associate Professor

A. A. Al-Saidi, National Research University MPEI

Postgraduate Student

D. F. Bordan, Sevastopol State University

Postgraduate Student

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