A Novel Tunable Electromagnetic Gravity Compensator with Low Natural Frequency for Precision Assembly

Qimin Li, Tong Wang, Huayan Pu, Jin Yi, Jie Ma, Ruqing Bai, Jinglei Zhao, Shilong Wang, Jun Luo, Tao Zhu
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Abstract

Precise positioning and vibration isolation are the key technologies in modern precision engineering, such as the precise assembly manipulators and UV lithography, where isolating precision components from the environmental disturbances during positioning is required. In this paper, a novel magnetic levitation gravity compensator employed in a precise assembly system is proposed, which can carry out high-precise positioning in ±5 mm stroke and superior vibration isolation performance attributed to its low levitation stiffness (72.11 N/m) and natural frequency (0.698 Hz). In order to design the gravity compensator with ultra-low stiffness and natural frequency, the analytical model of levitation force is deduced by equivalent surface current model and validated by FEM model. Moreover, a hybrid optimization strategy is utilized to obtain the optimal dimensional parameters of gravity compensator.
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一种用于精密装配的低固有频率电磁重力补偿器
精密定位和隔振技术是现代精密工程中的关键技术,如精密装配机械手和UV光刻技术,需要在定位过程中使精密部件不受环境干扰。提出了一种用于精密装配系统的新型磁悬浮重力补偿器,该补偿器的悬浮刚度(72.11 N/m)低,固有频率(0.698 Hz)低,可在±5mm行程内实现高精度定位。为了设计具有超低刚度和固有频率的重力补偿器,采用等效表面电流模型推导了悬浮力解析模型,并用有限元模型进行了验证。此外,采用混合优化策略获得了重力补偿器的最优尺寸参数。
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