Design and utilization of thrust fluctuation of slotted-tubular permanent magnet linear motor: Mechatronics for low-frequency vibration forming machine

Jingzhou Gao, Wei Du, Zhenhao Zheng, Shengdun Zhao, Weiming He
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Abstract

Usually, the conventional low-frequency vibration forming machine has a main transmission mechanism as the driving source to provide forming force and an auxiliary mechanism as the vibration source to generate vibration force. The transmission chain is long and the structure is complex and bloated, which affects the forming process and product quality. This paper presents a novel mechatronics idea of low-frequency vibration forming machine, which uses a slotted tubular permanent magnet synchronous linear motor (slotted-TPMLM) as both the driving source and the vibration source. The key is that the slotted-TPMLM provides sufficient forming force accompanied with a certain low-frequency vibration force. Consequently, this paper focuses on the thrust fluctuation caused by the structure. Firstly, the effect of end force and the influence of cogging force are discussed in detail through Fourier analyses, especially the stator adjustment length and pole-slot combination. Then, the slotted-TPMLM is designed, manufactured, and tested. The results show that the slotted-TPMLM can provide a certain low-frequency vibration force (low frequency of 4.8 Hz at 100 mm/s and 48 Hz at 1000 mm/s), which meets the technical requirements. Consequently, the feasibility of the novel mechatronics idea of a low-frequency vibration forming machine has been verified. This research will contribute to the field of linear motors and metal forming machines.
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槽管式永磁直线电机推力波动的设计与利用低频振动成型机的机电一体化
传统的低频振动成形机通常以主传动机构作为驱动源提供成形力,以辅助机构作为振动源产生振动力。传动链长,结构复杂臃肿,影响成型工艺和产品质量。本文提出了一种新颖的低频振动成形机机电一体化思路,即使用带槽管状永磁同步直线电机(slototted-TPMLM)作为驱动源和振动源。其关键在于开槽管状永磁同步直线电机在提供足够成型力的同时,还能提供一定的低频振动力。因此,本文重点研究该结构引起的推力波动。首先,通过傅里叶分析详细讨论了端面力的影响和齿槽力的影响,特别是定子调整长度和极槽组合。然后,设计、制造并测试了带槽 TPMLM。结果表明,开槽型 TPMLM 可以提供一定的低频振动力(100 mm/s 时的低频为 4.8 Hz,1000 mm/s 时的低频为 48 Hz),满足技术要求。因此,低频振动成形机这一新型机电一体化构想的可行性得到了验证。这项研究将为直线电机和金属成型机领域做出贡献。
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