High damping electrostatic system for vibration energy scavenging

G. Despesse, J. Chaillout, T. Jager, J. Leger, A. Vassilev, S. Basrour, B. Charlot
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引用次数: 71

Abstract

Advances in low power electronics and microsystems design open up the possibility to power small wireless sensor nodes thanks to energy scavenging techniques. Among the potential energy sources, we have focused on mechanical surrounding vibrations. To convert vibrations into electrical power we have chosen mechanical structures based on electrostatic transduction. Thanks to measurements and in agreement with recent studies [1], we have observed that most of surrounding mechanical vibrations occurs at frequencies below 100 Hz. We report here global simulations and designs of mechanical structures able to recover power over a large spectrum below 100 Hz. Contrary to existing structures tuned on a particular frequency [2], we have investigated conversion structures with a high electrical damping. Mathematica analytical models have been performed to determine the mechanical and electrical parameters that maximize the scavenged power for a wide number of applications. Two prototypes of mechanical structures have been designed.
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高阻尼静电振动能量清除系统
由于能量清除技术,低功耗电子和微系统设计的进步为小型无线传感器节点供电提供了可能性。在潜在的能量来源中,我们关注的是机械周围振动。为了将振动转化为电能,我们选择了基于静电转导的机械结构。由于测量和最近的研究[1]一致,我们已经观察到大多数周围的机械振动发生在100赫兹以下的频率。我们在这里报告了能够在100hz以下的大频谱上恢复功率的机械结构的全局模拟和设计。与现有结构在特定频率上调谐相反[2],我们研究了具有高电阻尼的转换结构。已经执行了Mathematica分析模型来确定机械和电气参数,以最大限度地提高各种应用的清除功率。设计了两个机械结构的原型。
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