This paper presents the analysis of the influence of rotor design: massive or cage on high speed small power induction motors parameters. For these analyzes were used both field-circuit method and circuit analytical method. As could be predicted massive rotor motor is characterized by higher losses and thus less efficiency than the squirrel cage motor, especially with copper cage. Despite the massive motors are easier to manufacture and the specific construction may be used.
GeradaD., MebarkiA., BrownN.L., BradleyK.J. and GeradaC., Design Aspects of High-Speed High-Power-Density Laminated-Rotor Induction Machines, IEEE Transactions on Industrial Electronics58(9) (2011), 4039-4047.
2.
BogliettiA., GeradaC. and CavagninoA., High-speed electrical machines and drives [Special section intro.], IEEE Transactions on Industrial Electronics61(6) (2014), 2943-2945.
3.
SilberS., SloupenskyJ., DirnbergerP., MoravecM., AmrheinW. and ReisingerM., High-speed drive for textile rotor spinning applications, IEEE Trans. Ind. Electron.61(6) (2014), 2990-2997.
4.
TenconiA., VaschettoS. and ViglianiA., Electrical machines for high speed applications: Design considerations and tradeoffs, IEEE Trans. Ind. Electron.61(6) (2014), 3022-3029.
5.
GeradaD., MebarkiA., BrownN.L., GeradaC., CavagninoA. and BogliettiA., High-speed electrical machines: Technologies, trends, and developments, IEEE Trans. Ind. Electron.61(6) (2014), 2946-2959.
6.
LiangweiS., XitianP., HongyingL. and JingcanL., Super-high speed medical micro-motor design and thermal field calculation, International Journal of Applied Electromagnetics and Mechanics (2015), 1-12.
7.
Pil-WanH., Yon-DoC., Jae-HakC., Un-JaeS., Dae-YunK., JuL. and Won-GooL., Multi optimization of high efficiency induction motor considering cost effect, International Journal of Applied Electromagnetics and Mechanics39(1-4) (2012), 733-737.
8.
GeradaD., MebarkiA., BrownN.L. and GeradaC., Optimal split ratio for high speed induction machines, 2010 IEEE Energy Conversion Congress and Exposition (ECCE) (2010), pp. 10-16.
9.
DemsM. and KomezaK., Performance characteristics of a high-speed energy-saving induction motor with an amorphous stator core, IEEE Trans. Ind. Electron.61(6) (2014), 3046-3055.
10.
DemsM., KomezaK., WiakS. and StecT., The highly efficient three-phase small induction motors with stator cores made from amorphous iron, COMPEL - The International Journal For Computation And Mathematics In Electrical And Electronic Engineering23(3) (2004), 625-632.
11.
DemsM. and KomezaK., Finite Element and Analytical Calculations of No-Load Core Losses in Energy-Saving Induction Motors, IEEE Transactions on Industrial Electronics59(7) (2012), 2934-2946.
12.
BaodongB. and QingY., Field circuit and movement coupled finite element analysis on flameproof induction motor, International Journal of Applied Electromagnetics and Mechanics33(1,2) (2010), 351-359.
13.
KatsumiY., Efficiency analysis of induction motor considering rotor and stator surface loss caused by rotor movement, International Journal of Applied Electromagnetics and Mechanics13(1-4) (2001), 229-234.
14.
GmyrekZ., BogliettiA. and CavagninoA., Estimation of Iron Losses in Induction Motors: Calculation Method, Results, and Analysis, IEEE Transactions on Industrial Electronics57 (2010), 161-171.
15.
DemsM. and RutkowskiZ., STAT_WIN_F v.2, Calculation of high speed induction motors, Library of software packages Institute of Mechatronics and Information Science Lodz University of Technology (2010), Lodz, Poland.
16.
DemsM., KomezaK., WiakS., StecT. and KikosickiM., Application of circuit and field-circuit methods in designing process of small induction motors with stator cores made from amorphous iron, COMPEL - The International Journal For Computation And Mathematics In Electrical And Electronic Engineering25(2) (2006), 283-296.
17.
PiepenbreierF., Taegen, Surface losses in cage induction motors, in Proc. Beijing International Conference on Electrical Machines (1987), China Academic Publishers, Book I, pp. 326-329.
18.
ŚliwińskiT., The methods of the induction motors calculation, PWN, Warszawa, Poland, 2008, p. 324 (in polish).
19.
AlgerPh.L., Induction Machines - Their Behaviour and Uses, Gordon and Breach Science Publishers, New York, London Paris, 1970.
20.
MehranM., MojtabaM., WeiyingC. and HooshangG., Analysis of solid rotor induction machines using coupled analytical method and reluctance networks, International Journal of Applied Electromagnetics and Mechanics25(1-4) (2007), 193-197.
21.
HooshangG., MojtabaM., MehranM. and WeiyingC., Coupled magnetic equivalent circuits and the analytical solution in the air-gap of squirrel cage induction machines, International Journal of Applied Electromagnetics and Mechanics25(1-4) (2007), 749-754.
22.
CentnerM. and SchaferU., Optimized Design of High-Speed Induction Motors in Respect of the Electrical Steel Grade, IEEE Transactions on Industrial Electronics57(1) (2010), 288-295.
23.
Pil-WanH., Yon-DoC., Jae-HakC., Un-JaeS., Dae-YunK., JuL. and Won-GooL., Design parameters and characteristics of aluminium and copper die casting induction motor for high efficiency, International Journal of Applied Electromagnetics and Mechanics39(1-4) (2012), 897-903.
24.
TüysüzA., ZwyssigC. and KolarJ.W., A novel motor topology for high speed micro-machining applications, IEEE Trans. Ind. Electron.61(6) (2014), 2960-2968.
25.
CrescimbiniF., LidozziA., Lo CalzoG. and SoleroL., High-speed electric drive for exhaust gas energy recovery applications, IEEE Trans. Ind. Electron.61(6) (2014), 2998-3011.
26.
Pil-WanH., Dong-JunK., Yon-DoC., Jae-HakC., Un-JaeS. and Dae-HyunK., The study on the design parameters and losses of copper die-casting induction motor for high speed, International Journal of Applied Electromagnetics and Mechanics45(1-4) (2014), 949-955.
