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Energy-Based Functional Modelling for Control Architecture Design: An Application to Energy Management for a Hybrid Electric Vehicle

机译:控制结构设计的基于能量的功能建模:在混合动力电动汽车能量管理中的应用

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The increasing complexity of energy systems leads to a growing interest in energy management that is actively studied using modelling methods and simulation tools capable to represent the re system's behavior. In this study, a functional energetic modelling method is proposed to design the control architecture for the management of the energy flow. This method relies on local control loops, a decision manager (DM) and basic equations. When the functional level of abstraction is used to model a complex system, the evaluation of the model accuracy (from an energetic point of view) and the validation of energy management strategies are simplified by fast simulations due to low model complexity. Even if the functional model allows a first-stage validation of the energy allocation within the system, the energy management strategies have to be tested using a more precise model, which is the multi-physical model of the system. The multi-physical modelling level has its own local controllers and global resource manager (GRM) to handle the energy allocation between the different components. The second-stage in the validation is completed by adapting the functional model in order to obtain the high-level controller (i.e. the GRM) for the multi-physical level. The development of the control architecture of the multi-physical model based on the functional model requires two steps: (ⅰ) adjusting the functional elements' parameters and (ⅱ) proposing a method to interconnect the models at both levels of representation (functional and multi-physical levels). The modelling and the parametrization of the functional elements are demonstrated on a hybrid electric vehicle (HEV). The GRM design is detailed and the simulation results of the HEV system at multi-physical level are illustrated to validate the system architecture, the component sizing and the energy management strategy. The fuel consumption is evaluated in comparison to the HEV's design specifications.
机译:能源系统日益复杂,导致人们对能源管理的兴趣日益浓厚,人们已使用能够表示系统行为的建模方法和仿真工具对其进行了积极研究。在这项研究中,提出了一种功能性的能量建模方法来设计用于能量流管理的控制体系结构。该方法依赖于局部控制回路,决策管理器(DM)和基本方程式。当使用抽象的功能级别对复杂系统进行建模时,由于模型复杂度低,因此通过快速仿真可以简化模型准确性的评估(从能量的角度)和能源管理策略的验证。即使功能模型允许对系统内能量分配进行第一阶段验证,也必须使用更精确的模型(即系统的多物理模型)来测试能量管理策略。多物理建模级别具有其自己的本地控制器和全局资源管理器(GRM),以处理不同组件之间的能量分配。验证的第二阶段是通过调整功能模型来完成的,以获得多物理级别的高级控制器(即GRM)。基于功能模型的多物理模型控制体系结构的开发需要两个步骤:(ⅰ)调整功能元素的参数,以及(ⅱ)提出一种在两个表示级别(功能和多重表示)上互连模型的方法-身体水平)。在混合动力电动汽车(HEV)上演示了功能元件的建模和参数化。详细介绍了GRM设计,并举例说明了HEV系统在多物理层的仿真结果,以验证系统架构,组件大小和能源管理策略。与HEV的设计规格相比,对燃油消耗进行了评估。

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