可扩展控制分配:多相系统模块化多电平变换器的实时优化电流控制

Grégoire Le Goff, M. Fadel, M. Bodson
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引用次数: 1

摘要

本文的主要新颖之处在于引入了一种新的实时优化控制分配方法,该方法可扩展到任意模块化多电平变换器(MMC)。它可以适应任意数量的相位和(a)子模块(SM)的MMC,而无需在控制算法中进行更改。首先提出了MMC电流的可伸缩状态空间模型,然后利用该最小阶模型提出了可伸缩电流控制分配方法。控制分配采用线性规划和二次规划(b)算法进行快速实时优化计算。在3 ~ 101相的多相交流系统中,对三种控制分配方法进行了硬件在环测试,证明了它们能够保证电流参考跟踪以及跟踪性能的可扩展性。两种解决方法之间的比较突出了每种方法的优点和缺点。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Scalable Control Allocation: Real-time Optimized Current Control in the Modular Multilevel Converter for Polyphase Systems
The main novelty of this paper is to introduce a new real-time optimized control allocation (CA) method of the currents scalable to any modular multilevel converter (MMC). It can be adapted to an MMC of any number of phases and (a) submodules (SM) without having to undergo changes in the control algorithm. First the scalable state-space model of the MMC currents is presented end than, this minimal order model is used to develop the scalable current control allocation method. The control allocation is computed by fast real-time optimization using linear programming and quadratic programming (b) algorithms. Three control allocation methods are Hardware-In- the-Loop tested for polyphase AC systems from 3 up to 101 phases, showing their ability to guarantee the current reference tracking as well as the scalability of the tracking performance. A comparison between the resolution methods highlights the benefits and pitfalls of each.
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