Influences of 3D fluid field for squirrel-cage induction motors on thermal field distribution

被引：0
|
作者：
Xie Y. [1 ]
Li Y.-Y. [1 ]
Shan X.-T. [1 ]
机构：
[1] College of Electrical & Electronic Engineering, Harbin University of Science and Technology, Harbin
来源：
Xie, Ying | 1600年 / Editorial Department of Electric Machines and Control卷 / 21期
关键词：
3D fluid field; 3D thermal field; Coupling calculation; Finite-element; Squirrel-cage induction motors;
D O I：
10.15938/j.emc.2017.02.007
中图分类号：
学科分类号：
摘要：
Taking a squirrel-cage induction motor Y802-2 as an example, 3D fluid-flow and heat-transfer on the medium-small induction motor were researched. Considering the ventilation structure and characteristics of heat-transfer of the motor, the outer approximate infinite fluid field and 3D finite-element structure models of the motor were established, including thin rotating fluid domain on rotor surface and moving fluid domain of fan in surrounding fluid field of the motor. Based on some corresponding boundary conditions and assumptions, fluid motion equations and energy equations were solved by using finite volume method (FVM) to obtain motion state of fluid medium and heat transfer coefficients of each surface of the motor which were foundations for calculating thermal field. Temperature distribution based on coupling calculation and obtained the temperature results by traditional method compared with the experimental values, which proves that 3D fluid field and thermal field of medium-small induction motor have strong coupling connection, and the temperature results based on fluid motion are more accurate and reasonable. © 2017, Harbin University of Science and Technology Publication. All right reserved.
引用
收藏
页码：55 / 62
页数：7
相关论文
共 17 条
  • [1] Joya C.K., Dimitrios C.S., Steady-state electromagnetic and thermal modelling of an induction motor under healthy operation and under broken-bar fault, International Review on Modelling and Simulations, 4, 2, pp. 517-524, (2011)
  • [2] Faiz J., Ganji B., Carstensen C.E., Et al., Temperature rise analysis of switched reluctance motors due to electromagnetic losses, IEEE Transactions on Magnetics, 45, 7, pp. 2927-2934, (2009)
  • [3] Zhang F., Song S., Du G., Et al., Analysis of the 3d steady temperature field of mw high speed permanent magnet motor, International Conference on Electrical Machines and Systems, pp. 1351-1354, (2013)
  • [4] Li C., Pei Y., Ni R., Et al., Calculation and analysis of heat transfer coefficients and temperature fields of air-cooled large hydro-generator rotor excitation windings, IEEE Transactions on Energy Conversion, 26, 3, pp. 946-952, (2011)
  • [5] Fu X., Lin M., Xu D., Et al., Computation and analysis of 3D-transient temperature field for a permanent magnet-induction hybrid excitation generator, Transactions of China Electrotechnical Society, 28, 3, pp. 107-113, (2013)
  • [6] Li L., Huang X., Kou B., Et al., Numerical calculation of temperature field for tubular linear motor based on finite element method, Transactions of China Electrotechnical Society, 28, 3, pp. 107-113, (2013)
  • [7] Boglietti A., Cavagnino A., Staton D., Et al., End space heat transfer coefficient determination for different induction motor enclosure type, IEEE Transactions on Industry Applications, 45, 3, pp. 929-937, (2009)
  • [8] Li W., Yang X., Gu D., Influence of air current flow change on fluid flow and heat transfer of air-cooled turbo-generator with multipath ventilation, Proceedings of the CSEE, 29, 21, pp. 53-61, (2009)
  • [9] Li W., Li Y., Yang X., Temperature and fluid flow field calculation and analysis of stator end of air cooled turbo-generator, Proceedings of the CSEE, 29, 36, pp. 80-87, (2009)
  • [10] Howey D.A., Holmes A.S., Pullen K.R., Measurement and CFD prediction of heat transfer in air-cooled disc-type electrical machines, IEEE Transactions on Industry Applications, 47, 4, pp. 1716-1723, (2011)
12