基于压力反馈的工程机械主动平顺控制

Riccardo Madau, A. Vacca
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引用次数: 2

摘要

通常,越野施工机械在轮轴处不配备悬架。这导致了使用工作工具来减轻传递到机舱的振动的替代概念。最常见的解决方案是基于被动平顺控制(PRC)方法。PRC通常需要一个液压蓄能器和耗散阀正确连接到工作液压系统。通过这种方式,PRC能够耗散流体能量并抑制液压执行器内部压力的振荡,对机器振动有明显的好处。本文的重点是主动平顺控制(ARC)方法,该方法控制工作液压运动以抵消机器振动,避免使用蓄能器。本文以轮式装载机为例,讨论了ARC控制器设计的主要挑战。针对这一应用,提出了一种带压力反馈的高通压力滤波器控制。首先在仿真模型中对该控制器进行了研究,然后在库存机上进行了实验验证。标准液压系统的带宽限制不允许达到最先进的PRC系统作为基准的相同性能。尽管如此,在不使用控制器的情况下,所提出的ARC的实验结果显示出显着的改进。此外,该方法可以更有效地应用于动态响应较高的液压系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Active Ride Control for Construction Machines Based on Pressure Feedback
Typically, off-road construction machines are not equipped with suspensions at the wheel axles. This has led to alternative concepts that uses the working implement to mitigate the vibration transmitted to the cabin. The most common solutions are based on passive ride control (PRC) methods. A PRC usually requires a hydraulic accumulator and dissipating valves properly connected to the working hydraulics. In this way, the PRC is able to dissipate the fluid energy and damp the oscillations of the pressure inside the hydraulic actuators, with clear benefits on the machine vibration. This paper focuses instead on an active ride control (ARC) methodology, which controls the working hydraulic motion to counter-reach the machine vibrations, avoiding the use of an accumulator. The paper addresses the main challenge of designing the controller for the ARC for the reference case of a wheel loader. A high pass pressure filter control with pressure feedback is proposed for this application. The controller is first studied in a simulation model and then validated through experiments on a stock machine. The bandwidth limitation of the standard hydraulic system does not permit to achieve the same performance of a state-of-art PRC system considered as baseline. Notwithstanding, the experimental results on the proposed ARC shows significant improvements with respect to a case where no controller is used. Moreover, the proposed method could be applied with more effectiveness in hydraulic systems with higher dynamic response.
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