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Optimal Sizing and Control Strategy Design for Heavy Hybrid Electric Truck

机译:重型混合动力卡车的最佳尺寸和控制策略设计

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摘要

Due to the complexity of the hybrid powertrain, the control is highly involved to improve the collaborations of the different components. For the specific powertrain, the components' sizing just gives the possibility to propel the vehicle and the control will realize the function of the propulsion. Definitely the components' sizing also gives the constraints to the control design, which cause a close coupling between the sizing and control strategy design. This paper presents a parametric study focused on sizing of the powertrain components and optimization of the power split between the engine and electric motor for minimizing the fuel consumption. A framework is put forward to accomplish the optimal sizing and control design for a heavy parallel pre-AMT hybrid truck under the natural driving schedule. The iterative plant-controller combined optimization methodology is adopted to optimize the key parameters of the plant and control strategy simultaneously. A scalable powertrain model based on a bilevel optimization framework is built. Dynamic programming is applied to find the optimal control in the inner loop with a prescribed cycle. The parameters are optimized in the outer loop. The results are analysed and the optimal sizing and control strategy are achieved simultaneously.
机译:由于混合动力总成的复杂性,控制涉及到很多方面,以改善不同组件的协作。对于特定的动力总成,部件的尺寸恰好为推进车辆提供了可能性,并且控制装置将实现推进功能。当然,组件的大小也给控制设计带来了约束,这导致大小和控制策略设计之间的紧密耦合。本文提出了一项参数化研究,重点是确定动力总成组件的大小以及优化发动机和电动机之间的功率分配,以最大程度地减少燃料消耗。提出了一种框架,可以在自然行驶时间表下完成重型并行AMT混合动力卡车的最佳尺寸和控制设计。采用迭代工厂-控制器组合优化方法来同时优化工厂的关键参数和控制策略。建立了基于双层优化框架的可扩展动力总成模型。应用动态编程以指定的周期在内部循环中找到最佳控制。在外部循环中优化了参数。分析结果并同时获得最佳的尺寸和控制策略。

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  • 来源
    《Mathematical Problems in Engineering 》 |2012年第11期| 404073.1-404073.15| 共15页
  • 作者单位

    National Engineering Laboratory for Electric Vehicles, School of Mechanical Engineering, Beijing Institute of Technology, Beijing 100081, China;

    National Engineering Laboratory for Electric Vehicles, School of Mechanical Engineering, Beijing Institute of Technology, Beijing 100081, China;

    National Engineering Laboratory for Electric Vehicles, School of Mechanical Engineering, Beijing Institute of Technology, Beijing 100081, China;

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