片上高压单时钟摆幅增强电荷泵电路在0.18µm技术

Rahul Roushan, Dipyaman Modak, Saroj Mondal, R. Paily
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引用次数: 5

摘要

本文提出了一种采用单时钟摆幅增强方案提高输出电压的新型电荷泵电路。电荷泵电路在能量收集中起着非常关键的作用,因为它不仅影响从收集器中提取的功率,而且其固有功率损失也影响输送的净输出功率。电荷泵功率变换器的电荷传输能力取决于其实现技术、输入输出电压、电路拓扑结构、晶体管尺寸及其级数[1]。利用TSMC提供的0.18µm CMOS技术库,在Mentor Graphics中对所提出的电荷泵电路进行了仿真。所提出的电荷泵电路实现了比传统迪克森电荷泵更高的输出电压。当输入电压为1.2 V时,所提出的8级电路可以达到76.09 V,而传统电路在空载时最高可达9.07 V。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
On chip high voltage single clock swing enhanced charge pump circuit in 0.18 µm technology
In this paper, a new charge pump circuit which uses single clock swing enhanced scheme to increase the output voltage is proposed. The charge pump circuitry plays a very critical role in energy harvesting, because not only it influences how much power is being extracted from the harvester, but also that its intrinsic power loss affects the net output power delivered. The charge transfer capability of a charge pump power converter depends on its implementation technology, input output voltages, circuit topology, transistor sizing, and the number of stages it has [1]. The proposed charge pump circuit is simulated in Mentor Graphics, using 0.18 µm CMOS technology library provided by TSMC. The proposed charge pump circuit achieves a higher output voltage than a traditional Dickson Charge pump. With a 1.2 V input applied, the proposed 8-stage circuit can reach 76.09 V, compared to traditional one which reaches up to 9.07 V at no load.
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