Active and reactive power compensation of Data Center using Multi-Level STATCOM Inverter

S. Mondal
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引用次数: 6

Abstract

Data Center (DC) is one of the largest and fastest growing consumers of electricity in the world. In 2013, US DCs consumed an estimated 91 billion kWhr of electricity - enough electricity to power all the households in NY City twice over - and are on-track to reach 140 billion kWhr by 2020 [1]. Paper presents development of `Multi-Level Static Synchronous Compensator Inverter' (MLSTATCOMI) for DC application using Space vector PWM (SVPWM) based digital controller at Medium Voltage (MV) application. MV operation reduces overall electrical losses and reduces Power Usage Effectiveness (PUE) of DC. Reactive power STATCOM compensator along with battery energy storage provides active power compensation also. Capacitor voltage balancing of ML inverter is not an issue with reactive power STATCOM compensator as active power transfer is almost zero. Capacitor voltage balance depends on net transfer of active power between Inverter DC-link voltage source and AC grid source [2]. Capacitor voltage balancing is an issue of MLSTATCOMI compensator as it needs to compensate both active and reactive power. DSP and FPGA based SVPWM digital controller is developed to compensate simultaneous active and reactive power compensation. ML capacitor voltage balancing is achieved by developing a unique switching sequence of Inverter space vectors. The modulator performance using SVPWM control strategy can be extended to five-level inverter using space vector [3] for DC application.
基于多级STATCOM逆变器的数据中心有功和无功补偿
数据中心(DC)是世界上最大和增长最快的电力消费者之一。2013年,美国数据中心的用电量估计为910亿千瓦时,足以为纽约市所有家庭提供两倍的电力,并有望在2020年达到1400亿千瓦时。本文介绍了基于空间矢量PWM (SVPWM)的数字控制器在中压(MV)应用下用于直流应用的“多级静态同步补偿逆变器”(MLSTATCOMI)。MV操作减少了整体的电损耗,降低了直流的功率使用效率(PUE)。无功补偿器STATCOM连同蓄电池储能也提供有功补偿。电容电压平衡的ML逆变器不是无功功率STATCOM补偿器的问题,因为有功功率传输几乎为零。电容器电压平衡取决于逆变器直流电压源和交流电网源[2]之间有功功率的净转移。电容电压平衡是MLSTATCOMI补偿器的一个问题,因为它需要补偿有功和无功功率。开发了基于DSP和FPGA的SVPWM数字控制器,实现有功和无功同步补偿。ML电容器电压平衡是通过开发一个独特的逆变器空间矢量开关序列来实现的。使用SVPWM控制策略的调制器性能可以扩展到使用空间矢量[3]的五电平逆变器用于直流应用。
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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