An inductorless piezoelectric energy harvesting interface circuit using gyrator induced voltage flip technique

IF 0.8 4区 工程技术 Q4 ENGINEERING, ELECTRICAL & ELECTRONIC Circuit World Pub Date : 2021-09-13 DOI:10.1108/cw-08-2020-0188
Jitendra B. Zalke, Sandeepkumar R. Pandey, Ruchir V. Nandanwar, Atharva Sandeep Pande, Pravin Balu Nikam
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Abstract

Purpose The purpose of this research paper is to explore the possibility to enhance the power transfer from piezoelectric energy harvester (PEH) source to the load. As the proposed gyrator-induced voltage flip technique (GIVFT) does not require bulky components such as physical inductors, it is easily realizable in small integrated circuits (IC) package thereby offering performance benefits, reducing area overhead and providing cost benefits for constrained self-powered autonomous Internet-of-Things (IoT) applications. Design/methodology/approach This paper presents an inductorless interface circuit for PEH. The proposed technique is called GIVFT and is demonstrated using active elements. The authors use gyrator to induce voltage flip at the output side of PEH to enhance the charge extraction from PEH. The proposed technique uses the current-voltage (I-V) relationship of gyrator to get appropriate phasor response necessary to induce the voltage flip at the output of PEH to gain power transfer enhancement at the load. Findings The experimental results show the efficacy of the GIVFT realization for enhanced power extraction. The authors have compared their proposed design with popular earlier reported interface circuits. Experimentally measured performance improvement is 1.86×higher than the baseline comparison of full-wave bridge rectifier circuit. The authors demonstrated a voltage flip using GIVFT to gain power transfer improvement in piezoelectric energy harvesting. Originality/value To the best of the authors’ knowledge, pertaining to the field of PEH, this is the first reported GIVFT based on the I-V relationship of the gyrator. The proposed approach could be useful for constrained self-powered autonomous IoT applications, and it could be of importance in guiding the design of new interface circuits for PEH.
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采用回转器感应电压翻转技术的无电感压电能量采集接口电路
目的本研究旨在探索增强压电能量采集器(PEH)电源向负载的功率传输的可能性。由于所提出的回转器感应电压翻转技术(GIVFT)不需要诸如物理电感器之类的庞大组件,因此它很容易在小型集成电路(IC)封装中实现,从而为受限的自供电自主物联网(IoT)应用提供性能优势、减少面积开销和成本优势。设计/方法/途径本文提出了一种用于PEH的无电感接口电路。所提出的技术被称为GIVFT,并使用有源元件进行了演示。作者使用回转器在PEH的输出侧感应电压翻转,以增强PEH的电荷提取。所提出的技术使用回转器的电流-电压(I-V)关系来获得适当的相量响应,该相量响应是在PEH的输出处引起电压翻转所必需的,以增强负载处的功率传输。实验结果表明了GIVFT实现对增强功率提取的有效性。作者将他们提出的设计与早期报道的流行接口电路进行了比较。实验测量的性能改进比全波桥式整流电路的基线比较高1.86倍。作者演示了使用GIVFT的电压翻转,以提高压电能量采集中的功率传输。独创性/价值据作者所知,在PEH领域,这是首次报道的基于回转器I-V关系的GIVFT。所提出的方法可能适用于受约束的自供电自主物联网应用,并且在指导PEH新接口电路的设计方面具有重要意义。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Circuit World
Circuit World 工程技术-材料科学:综合
CiteScore
2.60
自引率
0.00%
发文量
33
审稿时长
>12 weeks
期刊介绍: Circuit World is a platform for state of the art, technical papers and editorials in the areas of electronics circuit, component, assembly, and product design, manufacture, test, and use, including quality, reliability and safety. The journal comprises the multidisciplinary study of the various theories, methodologies, technologies, processes and applications relating to todays and future electronics. Circuit World provides a comprehensive and authoritative information source for research, application and current awareness purposes. Circuit World covers a broad range of topics, including: • Circuit theory, design methodology, analysis and simulation • Digital, analog, microwave and optoelectronic integrated circuits • Semiconductors, passives, connectors and sensors • Electronic packaging of components, assemblies and products • PCB design technologies and processes (controlled impedance, high-speed PCBs, laminates and lamination, laser processes and drilling, moulded interconnect devices, multilayer boards, optical PCBs, single- and double-sided boards, soldering and solderable finishes) • Design for X (including manufacturability, quality, reliability, maintainability, sustainment, safety, reuse, disposal) • Internet of Things (IoT).
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