Auto-Tuned Transition Scheme in Bias-Flip Rectifier for Piezoelectric Energy Harvesting

R. Chaudhari, A. Maity
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引用次数: 1

Abstract

The self-sustainable, ultra-low powered devices and sensor nodes are becoming quite popular just because of the availability of the micro-power generators. One of such micro-power generator is a piezoelectric energy harvester which converts the ambient mechanical vibration energy into the electrical energy. The piezoelectric energy harvester is capable of extracting 100’s of µW of power available. The most widely used interfacing circuit for the piezoelectric energy harvester is a bias-flip rectifier. In the conventional bias-flip rectifier, there is an inherent trade-off between the power extraction and the size of the external inductor. Based on the system demand, the designers often face challenges to generate a precise transition time for a particular value of the inductor. In this paper, an auto-tuned transition scheme for the bias-flip rectifier is presented. It is capable of generating and adjusting the transition time suitably based on the value of the inductor chosen. The proposed auto-tuned transition scheme is designed in 180 nm CMOS technology with a quiescent power consumption of 14.6 µW.
压电能量收集偏置-翻转整流器的自调谐转换方案
由于微型发电机的可用性,这种自我可持续、超低功耗的设备和传感器节点正变得相当流行。其中一种微型发电机是压电能量采集器,它将环境中的机械振动能量转化为电能。压电能量收集器能够提取100 μ W的可用功率。压电能量采集器中应用最广泛的接口电路是偏置翻转整流器。在传统的偏置翻转整流器中,在功率提取和外部电感的尺寸之间存在固有的权衡。根据系统需求,设计人员经常面临为特定电感值生成精确过渡时间的挑战。本文提出了一种用于偏置翻转整流器的自调谐过渡方案。它能够根据所选电感的值产生和调整适当的过渡时间。所提出的自动调谐转换方案采用180 nm CMOS技术设计,静态功耗为14.6µW。
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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