Energy Harvesting System with A Single-step Power Conversion Process Achieving Peak Efficiency of 79.1%

Ridvan Umaz
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引用次数: 1

Abstract

Energy harvesting interface circuit with a single-step power conversion process is presented in this paper. The energy harvesting system is at the interface between the ambient energy source and the load. The proposed energy harvesting system consists of two switching circuits, a step-up converter and a temporary storage element. Switching circuits regulate the output voltage level needed by the load as well as transfer the energy to the step-up converter and the load. One switching circuit achieves the energy source connection to the step-up converter while other switching circuit enables the energy transfer from the storage element to the load. The step-up converter is connected to the energy source through a switch in order to boost the low voltage at the output of the energy source to a higher level. The storage element is at the connection of the converter output to accumulate the energy. In order to verify the proposed energy harvesting system, the ambient energy source is emulated. The proposed energy harvesting system has been constructed using commercial off-the-shelf components (COTSs). The proposed energy harvesting system has been tested under various loads. The storage element charges from 3.3 V to 3.7 V; thus, the load is kept at the voltage level between 3.3 V and 3.7 V. Measured results indicate that the proposed energy harvesting system achieves a peak end-to-end efficiency of 79.1%. Results show the effectiveness of the proposed energy harvesting system in terms of a single-step power conversion process and a high efficiency.
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具有单步功率转换过程的能量收集系统,峰值效率为79.1%
本文提出了一种单步功率转换过程的能量收集接口电路。能量收集系统位于环境能量源与负载的交界处。所提出的能量收集系统由两个开关电路、一个升压转换器和一个临时存储元件组成。开关电路调节负载所需的输出电压水平,并将能量传递给升压变换器和负载。一个开关电路实现与升压变换器的能量源连接,而另一个开关电路使能量从存储元件转移到负载。升压变换器通过开关连接到能量源,以便将能量源输出端的低电压提升到更高的水平。存储元件位于变换器输出的连接处,用于积累能量。为了验证所提出的能量收集系统,对环境能量源进行了仿真。所提出的能量收集系统是使用商业现成组件(COTSs)构建的。所提出的能量收集系统已在各种负载下进行了测试。存储元件充电从3.3 V到3.7 V;因此,负载保持在3.3 V和3.7 V之间的电压水平。实测结果表明,该能量收集系统的端到端峰值效率为79.1%。结果表明,所提出的能量收集系统具有单步能量转换过程和高效率的优点。
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