Cooling structure design for an outer-rotor permanent magnet motor based on phase change material

被引：17

作者：

Li B. ^{[1
]}

Yuan Y. ^{[1
]}

Gao P. ^{[1
]}

Zhang Z. ^{[1
]}

Li G. ^{[1
]}

机构：

[1] School of Electrical and Information Engineering, Tianjin University, Tianjin

来源：

Thermal Science and Engineering Progress | 2022年 / 34卷

关键词：

Cooling structure; Copper foam; Outer-rotor permanent magnet motor; Overload capability; Phase change material;

D O I：

10.1016/j.tsep.2022.101406

中图分类号：

学科分类号：

摘要：

For a small-sized outer-rotor permanent magnet (PM) motor during overload operation, the internal heat increases sharply and the effective heat dissipation area is seriously insufficient. Aiming at the heat dissipation for the motor, given the limitation of size, a passive cooling structure based on phase change material (PCM) is proposed in this paper. The copper shell filled with PCM is mounted between the flange and end winding using the thermally conductive silicone. The three-dimensional model of the PM motor and the cooling structure is established and the heat dissipation is simulated by finite element method. The experiment is conducted and the results show that the cooling structure can prolong the operating time of the motor by 149 s under 2 times overload. Additionally, the PCM-copper foam composite consisted of PCM and porous copper foam is adopted to enhance the thermal conductivity. The experimental results show that the operating time of the motor is prolonged by 16.8% compared with pure PCM, and the overload capability is enhanced. © 2022 Elsevier Ltd

引用

共 23 条

[1]

Chiu H.-C., Jang J.-H., Yan W.-M., Shiao R.-B., Thermal performance analysis of a 30 kW switched reluctance motor, Int. J. Heat Mass Transfer, 114, pp. 145-154, (2017)

[2]

Li H., Cooling of a permanent magnet electric motor with a centrifugal impeller, Int. J. Heat Mass Transfer, 53, pp. 797-810, (2010)

[3]

Mizuno S., Noda S., Matsushita M., Koyama T., Shiraishi S., Development of a totally enclosed fan-cooled traction motor, IEEE Trans. Ind. Appl, 49, pp. 1508-1514, (2013)

[4]

Fan X., Li D., Qu R., Wang C., Fang H., Water cold plates for efficient cooling: verified on a permanent-magnet machine with concentrated winding, IEEE Trans. Industr. Electron, 67, pp. 5325-5336, (2020)

[5]

Liang P., Chai F., Shen K., Liu W., Water jacket and slot optimization of a water-cooling permanent magnet synchronous in-wheel motor, IEEE Trans. Ind. Appl, 57, pp. 2431-2439, (2021)

[6]

Chen W., Ju Y., Yan D., Guo L., Geng Q., Shi T., Design and optimization of dual-cycled cooling structure for fully-enclosed permanent magnet motor, Appl. Therm. Eng, 152, pp. 338-349, (2019)

[7]

Lundmark S., Arfa Grunditz E., Thiringer T., Andreasson A., Bergqvist A., Orbay R., Jansson E., Heat transfer coefficients in a coupled 3-D model of a liquid-cooled IPM traction motor compared with measurements, IEEE Trans. Ind. Appl, 57, pp. 4805-4814, (2021)

[8]

Lee K.-H., Cha H.-R., Kim Y.-B., Development of an interior permanent magnet motor through rotor cooling for electric vehicles, Appl. Therm. Eng, 95, pp. 348-356, (2016)

[9]

Lim D.H., Kim S.C., Thermal performance of oil spray cooling system for in-wheel motor in electric vehicles, Appl. Therm. Eng, 63, pp. 577-587, (2014)

[10]

Park M.H., Kim S.C., Thermal characteristics and effects of oil spray cooling on in-wheel motors in electric vehicles, Appl. Therm. Eng, 152, pp. 582-593, (2019)

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