从能源审计到兆瓦负荷监测:灵活可部署的电力计量系统

Bradford Campbell, Ye-Sheng Kuo, P. Dutta
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引用次数: 2

摘要

美国联邦政府和商业合作伙伴已经确定了当今测量技术的一个关键差距——在电路层面准确、廉价和无线地测量建筑用电量的能力。这种计量技术将使建筑物的所有者、经营者和居住者能够确定和减少建筑物的用电量——这是当今碳排放的主要成本和来源。由于安装困难或校准过程繁琐,现有的电路电平计量系统部署成本太高,由于无法忠实地计算同步电流和电压通道的功率,或者由于强烈依赖经常损耗的无线通道而太不可靠,因此太不准确。我们提出了Triumvi,一个独立的,自供电,非接触,真功率计量系统,以帮助使电路级计量负担得起,准确,可靠-简而言之,可用。在一个分芯电流互感器的外形中,Triumvi收集能量为自己供电,监测电流和电压,计算功率,加密数据,并无线传输结果。当负载消耗至少360 W时,我们的原型可以维持近0.5 Hz的采样率,并且在负载消耗150-600 W范围内显示出4.3%的平均误差。Triumvi还支持快速安装,增量升级,计量三相和大电流负载,仪表之间的电荷共享和电流波形分析,创建一个高度灵活的计量系统,能够进行能源审计,工业设备监控和许多应用。
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From Energy Audits to Monitoring Megawatt Loads: A Flexible and Deployable Power Metering System
The U.S. Federal Government and commercial partners have identified a critical gap in today's measurement technology—the ability to accurately, inexpensively, and wirelessly submeter building electricity usage at the circuit-level. Such metering technology would enable building owners, operators, and occupants to characterize and curtail electricity use in buildings—a major cost and source of carbon emissions today. Existing circuit-level metering systems are too costly to deploy, due to difficult installation or cumbersome calibration processes, too inaccurate, due to an inability to faithfully calculate power from synchronized current and voltage channels, or too unreliable, due to a strong dependence on a frequently lossy wireless channel. We propose Triumvi, a standalone, self-powered, non-contact, true-power metering system to help make circuit-level metering affordable, accurate, and reliable—in short, usable. In a splitcore current transformer form factor, Triumvi harvests energy to power itself, monitors current and voltage, calculates power, encrypts data, and wirelessly transmits the results. Our prototype can sustain a sample rate of nearly 0.5 Hz when the load draws at least 360 W and exhibits an average error of 4.3% over a load power draw range of 150-600 W. Triumvi also supports rapid installation, incremental upgrades, metering three phase and high current loads, charge sharing between between meters, and current waveform analysis, creating a highly flexible metering system capable of energy audits, industrial equipment monitoring, and many applications in-between.
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