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純電動汽車車載電源性能在環測試平臺研究

Hardware-in-the-loop test bench research of hybrid energy storage systems in electric vehicles

  • 摘要: 為研究純電動汽車車載電源性能,提出并搭建了由異步電動機和直流電動機組成的在環測試平臺.異步電動機用來模擬純電動汽車的牽引電動機,直流電動機用來模擬汽車行駛時的阻力和慣量,對異步電動機和直流電動機分別實施轉速控制和轉矩控制.分析了電動汽車行駛工況,給出了簡單循環工況下參考轉速、轉距和功率.設計了異步電動機調速系統轉速控制器和電流控制器,建立了異步電動機調速系統的數學模型,提出了基于自適應模糊神經網絡控制的異步電動機調速系統.仿真和實驗結果表明,基于自適應模糊神經網絡控制的調速系統明顯優于PID控制的交流調速系統,在環測試平臺能夠較好跟蹤參考轉速和參考轉距的變化.

     

    Abstract: Hybrid energy storage systems (HESS) play an important role in electric vehicles. This paper mainly focuses on a hardware-in-the-loop (HIL) test bench for testing the performance of HESS. The scenario of an induction motor and a DC motor was proposed. The induction motor was used as a traction motor while the DC motor worked as the load and moment of inertia of the vehicle. Speed control was implemented on the induction motor while torque control was applied to the DC motor. The speed, torque and power of the traction motor were obtained from a simple drive cycle based on real parameters. The motor speed was given as a reference of the induction motor while the load torque was used as a reference of the DC motor. The speed control system of the induction motor and the torque control of the DC motor were analyzed and designed. Meanwhile, the speed control system of the induction motor was modeled. Adaptive fuzzy neural-network control was proposed to achieve high accuracy due to the low accuracy of PID control. Simulation and experimental results agreed with the proposal. The test bench follows the reference speed and reference torque well.

     

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