Experimental validation of energy consumption model for the four-wheeled omnidirectional Mecanum robots for energy-optimal motion control

Li Xie, W. Herberger, Weiliang Xu, K. Stol
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引用次数: 19

Abstract

The Mecanum wheel, due to its omnidirectional mobility and heavy-duty transporting ability on the ground plane, is widely applied in the industry. However, the Mecanum wheel trades off energy efficiency for maneuverability. This paper proposes a novel energy consumption model of the four-wheel omnidirectional Mecanum mobile robots. The model is built based on a comprehensive understanding of the kinematics, dynamics, and energy flow of the Mecanum mobile robot. The energy consumption model has been mathematically implemented in MATLAB, and experimentally validated on Auckbot, the Mecanum mobile robot, developed in our lab. Simulation and experimental results show that for omnidirectional motion primitives on the ground plane, the energy consumption model has over 98% accuracy. This proposed energy consumption model is essential to the energy-optimal motion planning for the Mecanum mobile robot.
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四轮全向Mecanum机器人能量最优运动控制能耗模型的实验验证
Mecanum轮由于其全方位的机动性和在地面上的重载运输能力,在工业上得到了广泛的应用。然而,机甲轮交易的能源效率为机动性。提出了一种四轮全向Mecanum移动机器人的新型能耗模型。该模型是基于对Mecanum移动机器人的运动学、动力学和能量流的全面理解而建立的。该能耗模型在MATLAB中进行了数学实现,并在本实验室开发的Mecanum移动机器人Auckbot上进行了实验验证。仿真和实验结果表明,对于地平面上的全向运动基元,能量消耗模型的准确率达到98%以上。所提出的能量消耗模型对Mecanum移动机器人的能量最优运动规划至关重要。
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