伊朗气象站风能潜力排序及压电元件能量提取

M. Agah, Khalil Allah Sajadian, M. Khanali, S. M. M. Sadeghi, Mehdi Khanbazi, M. Marcu
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引用次数: 1

摘要

压电材料在最近的几项工作中被用于从环境中提取能量。本研究考察了伊朗的平均风速,并评估了压电悬臂梁(欧拉-伯努利梁)从涡激振动中提取的电压量。本研究旨在计算聚偏氟乙烯压电悬臂梁在涡激振动共振时的最大提取电压,为无线网络传感器、自供电系统和执行器供电。本文拟对某一级气象站6年(2015-2020年)平均风速进行模拟,采用有限元法进行数值计算。每隔3小时采集伊朗76个气象站10 m海拔段的风资料进行分析。统计结果表明,Zabol站、Siri岛站和Aligudarz站在这段时间内的最大平均风速分别为6.42、4.73和4.42 m/s,并模拟了Zabol站在平均风速下的能量收集。并利用WRPLOT视图软件对盛行风向进行了研究,绘制了15个排名靠前的站点的风矢量场。对于能量收集模拟,钝体背后周期性涡脱落,称为涡激振动,被认为是数值(有限元法)。压电悬臂梁为毫米级,其振型固有频率为630 Hz,产生共振现象,从而产生最大提取电压。在固有频率为630 Hz、风速为6 m/s的条件下,三根压电悬臂梁的最大提取电压分别为1.17、1.52和0.043 mV,适用于遥感、供电自供电电子设备、无线网络、执行器、充电电池以及设置智能家居或城市。为了实现这一目标,几个不同尺寸的能量收集器应该被放置在不同的方向,以利用大部分吹来的风。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Wind Energy Potential Ranking of Meteorological Stations of Iran and Its Energy Extraction by Piezoelectric Element
Piezoelectrics have been used in several recent works to extract energy from the environment. This study examines the average wind speed across Iran and evaluates the amount of extracted voltage from vortex-induced vibrations with the piezoelectric cantilever beam (Euler–Bernoulli beam). This study aims to compute the maximum extracted voltage from polyvinylidene fluoride piezoelectric cantilever beam at the resonance from vortex-induced vibration to supply wireless network sensors, self-powered systems, and actuators. This simulation is proposed for the first-ranked meteorological station at its mean velocity over six years (2015–2020), and the finite element method is used for this numerical computation. The wind data of 76 meteorological stations in Iran over the mentioned period at the elevation of 10 m are collected every three hours and analyzed. Based on the statistical data, it is indicated that Zabol, Siri Island, and Aligudarz stations had recorded the maximum mean wind speed over the period at 6.42, 4.73, and 4.42 m/s, respectively, and then energy harvesting at the mean wind speed of top-ranked station (Zabol) is simulated. The prevailing wind directions are also studied with WRPLOT view software, and the wind vector field of 15 top-ranked stations is plotted. For energy harvesting simulation, periodic vortex shedding behind the bluff body, known as vortex-induced vibration, is considered numerically (finite element method). The piezoelectric cantilever beam is at a millimeter-scale and has a natural frequency of 630 Hz in its mode shapes to experience resonance phenomenon, which leads to maximum extracted voltage. The maximum extracted voltages for three piezoelectric cantilever beams with the natural frequency of 630 Hz with the wind speed of 6 m/s are 1.17, 1.52, and 0.043 mV, which are suitable for remote sensing, supplying self-power electronic devices, wireless networks, actuators, charging batteries, and setting up smart homes or cities. To achieve this, several energy harvesters with various dimensions should be placed in different orientations to utilize most of the blown wind.
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