氢燃料电池动力船舶能量管理控制

L. Cavanini, P. Majecki, M. Grimble, G. M. V. D. Molen
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引用次数: 0

摘要

介绍了一种基于模型预测控制(MPC)的电动船舶能源管理系统。电动船有一个动力系统,由一个氢燃料电池发电机、一个电池储存系统、一个推进系统、一个辅助负载模块和一个指挥系统组成。控制器定义船舶动力系统组件之间的功率分配。MPC设计使用线性参数变化(LPV)模型来近似船舶动力系统和部件的非线性动力学。为了提高LPV-MPC的性能,还增加了一个基于数据驱动的机器学习的预测器。这包含在LPV-MPC中,因此可以估计参考信号的未来预测轨迹,以改善功率分配。参考轨迹是使用经过训练的神经网络生成的,该神经网络用于估计由代表性船舶操纵决定的未来电力需求。将简单的基线基于规则(RB)策略与基本的LPV-MPC和数据驱动的LPV-MPC(包括由神经网络生成的预测)进行比较。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Energy Management Control of Hydrogen Fuel Cell Powered Ships
An Energy Management System for electric vessels is described, based on a Model Predictive Control (MPC) with Anticipative Action. The electric ship has a power system composed of a hydrogen fuel cell generator, a battery storage system, a propulsion system, an auxiliary load module, and a command system. The controller defines the power allocated among the vessel’s power system components. The MPC design uses a Linear Parameter-Varying (LPV) model to approximate the nonlinear dynamics of the vessel’s power system and components. To improve the performance of the LPV-MPC, an additional predictor is included, based on data-driven Machine Learning. This is included in the LPV-MPC so the future predicted trajectory of the reference signals can be estimated to improve the allocation of power. The reference trajectory is generated using a Neural Network trained to estimate the future power demand determined by representative ship manoeuvres. A simple baseline Rule-based (RB) strategy was compared with the basic LPV-MPC and with the data-driven LPV-MPC that includes the prediction generated by the Neural Network.
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