如何为明渠的模型预测控制选择合适的物理模型,而无需进行调整和系统识别?

K. Horváth, B. V. van Esch, I. Pothof
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摘要

模型预测控制(MPC)用于水系统管理,其性能取决于所依据的(内部或面向控制的)模型。文献中介绍了几种开放式水系的水力学模型,并已在应用中使用,但尚未对这些模型的性能进行系统研究,也不存在针对特定渠道选择哪种模型的指导原则。本研究的目的是根据水道的几何形状和水流条件,提出选择模型的指导原则。制定该指南时,首先将渠道分为四种类型,然后对所有模型和渠道类型进行时域、频域和闭环测试。测试评估结果表明,对于短水道和以波浪为主的水道,Muskingum、Integrator Delay 和 Integrator Delay Zero 模型的性能最佳,而对于长水道,线性惯性模型最为合适。最后,介绍了如何选择模型的决策树。最后,介绍了一种决策树,以帮助选择最合适的模型。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
How to Choose Suitable Physics‐Based Models Without Tuning and System Identification for Model‐Predictive Control of Open Water Channels?
Model predictive control (MPC) is used to manage water systems, and its performance depends on the (internal or control‐oriented) model it is based on. Several models for the hydraulics of open water systems are presented in literature and used in applications, but their performance has not yet been investigated systematically, and no guideline exists on which model to select for a certain channel. The aim of this research is to present a guideline for model choice based on the geometry of the channel and the flow conditions. The guideline is developed by first categorizing the channels into four types, followed by performing time‐domain, frequency domain, and closed‐loop tests for all models and channel types. The evaluation of the tests shows that for short and wave‐dominated channels, the Muskingum, Integrator Delay, and Integrator Delay Zero models perform the best, while for longer channels the linear inertial model is the most suitable. Finally, a decision‐tree is presented how to choose the model. Lastly, a decision‐tree is introduced to aid in the selection of the most appropriate model.
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