Asynchronous design for new on-chip wide dynamic range power electronics

Asynchronous design for new on-chip wide dynamic range power electronics
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新型片上宽动态范围电力电子器件的异步设计

DOI:
10.7873/date.2014.151
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发表时间:
2014
期刊:
2014 Design, Automation & Test in Europe Conference & Exhibition (DATE)
影响因子:
--
通讯作者:
A. Yakovlev
A. Yakovlev
中科院分区:
--
文献类型:
--
作者:
D. Shang;Xuefu Zhang;Fei Xia;A. Yakovlev

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异步电路将在未来的微电子系统中发挥重要作用,特别是在能量收集和自主(EHA)系统中,这种电路将能够在各种功率-能量条件下提供鲁棒性和高效率。提出了电容器组块(CBB)机制的概念,以形成为异步负载供电的电子设备的基础。这些机制将有利于EHA系统,使有效的协同调度的计算任务和能源供应。本文演示了如何CBB机制本身可以由异步电路控制,从而形成一种新型的电源传输单元(PDU),将能够提供电力,智能数字逻辑在未来的EHA系统。这些PDU比传统的功率转换器优越上级,主要是因为后者只能调节足够高的功率和能量水平(规则的和周期性的),以及它们的控制器本身需要稳定的功率水平。这使得它们不适合EHA系统固有的间歇性和零星条件。在本文中,一种新的异步控制CBB的描述。实验和分析的新的PDU,包括CBB和异步控制,并详细讨论。
Asynchronous circuits will play an important role in microelectronic systems in the future, especially in energy harvesting and autonomous (EHA) systems where such circuits will be able to offer robustness and deliver high efficiency in a wide range of power-energy conditions. The concept of Capacitor Bank Block (CBB) mechanisms was proposed to form the basis of electronics for powering asynchronous loads. These mechanisms will benefit EHA systems by enabling effective co-scheduling of computational tasks and energy supply. This paper demonstrates how the CBB mechanisms can themselves be controlled by asynchronous circuits, thereby forming a new type of power delivery units (PDU) that will be able to deliver power to intelligent digital logic in future EHA systems. These PDUs are superior to traditional power converters largely because the latter can only regulate sufficiently high power and energy levels (regular and periodic) as well as their controllers require stable power levels themselves. This makes them unsuitable for intermittent and sporadic conditions inherent to EHA systems. In this paper, a novel asynchronous control for the CBB is described. Experiments and analysis of the new PDUs, comprising CBBs and asynchronous control, are presented and discussed in detail.
超低功耗电磁能量收集器的最大功率传输跟踪
DOI: 10.1109/tpel.2013.2251427
发表时间: 2014
影响因子: 6.7
作者:
Szarka G
通讯作者: Szarka G