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首页> 外文期刊>Mechatronics, IEEE/ASME Transactions on >Control of an Electromechanical Clutch Actuator Using a Dual Sliding Mode Controller: Theory and Experimental Investigations
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Control of an Electromechanical Clutch Actuator Using a Dual Sliding Mode Controller: Theory and Experimental Investigations

机译:双滑模控制器的机电离合器执行器控制:理论和实验研究

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The powertrain performance and comfort of a vehicle are largely dependent on the clutch control strategy for its Automated Manual Transmission (AMT). In most industrial cases, clutch control is managed by clutch pressure control, irrespective of clutch actuation technology. However, clutch pressure control represents a challenge with regard to clutch nonlinearities and time-varying parameters (especially with electromechanical technology). In this paper, the electrohydraulic AMT of a three-wheeled motorcycle is considered. In the context of replacing its electrohydraulic clutch actuator (EHA) by a new electromechanical clutch actuator (EMA) for fuel savings, a dual sliding mode controller (DSMC) is proposed in order to control clutch pressure with the EMA. The clutch and its EMA are modeled through an analytical model including two nonlinear components. The EMA was prototyped and subsequently enclosed in an environmental chamber. Experimental investigations revealed both predicted nonlinearities in the system and allowed identifying several numeric models of the system's dynamics. In keeping with these experimental investigations, the DSMC architecture and algorithm was developed, in which the robustness of the DSMC was proven through a Lyapunov analysis and the original use of the bang-bang component enabled to overcome static friction without introducing chattering. Finally, the test bench setup was used to experimentally highlight controller robustness and performance. Finally, the better control performance and accuracy of the EMA and its DSMC over the current integrated EHA and its associated PI controller were pointed out with respect to four critical clutch operational cases.
机译:车辆的动力总成性能和舒适性在很大程度上取决于其自动变速箱(AMT)的离合器控制策略。在大多数工业情况下,离合器控制均由离合器压力控制来管理,而与离合器致动技术无关。但是,离合器压力控制对于离合器非线性和时变参数(尤其是机电技术)提出了挑战。在本文中,考虑了三轮摩托车的电动液压AMT。在为节省燃料而用新的机电离合器致动器(EMA)代替其电液离合器致动器(EHA)的情况下,提出了一种双滑模控制器(DSMC),以便通过EMA控制离合器压力。离合器及其EMA通过包含两个非线性成分的分析模型进行建模。 EMA已制成原型,并随后封闭在环境室中。实验研究揭示了系统中的预测非线性,并允许确定系统动力学的多个数值模型。为了与这些实验研究保持一致,开发​​了DSMC架构和算法,其中通过Lyapunov分析证明了DSMC的鲁棒性,并且Bang-bang组件的最初使用能够克服静摩擦而不会引起颤动。最后,使用测试平台设置来实验性地强调控制器的鲁棒性和性能。最后,针对四个关键离合器操作情况,指出了EMA及其DSMC在当前集成的EHA及其关联的PI控制器方面具有更好的控制性能和准确性。

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