Analysis of direct-on-line synchronous reluctance machine start-up using a magnetic field decomposition

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Analysis of direct-on-line synchronous reluctance machine start-up using a magnetic field decomposition. / Tampio, Juha; Känsäkangas, Tero; Suuriniemi, Saku; Kolehmainen, Jere; Kettunen, Lauri; Ikäheimo, Jouni.

julkaisussa: IEEE Transactions on Industry Applications, Vuosikerta 53, Nro 3, 2017, s. 1852-1859.

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Harvard

Tampio, J, Känsäkangas, T, Suuriniemi, S, Kolehmainen, J, Kettunen, L & Ikäheimo, J 2017, 'Analysis of direct-on-line synchronous reluctance machine start-up using a magnetic field decomposition', IEEE Transactions on Industry Applications, Vuosikerta. 53, Nro 3, Sivut 1852-1859. https://doi.org/10.1109/TIA.2016.2642891

APA

Tampio, J., Känsäkangas, T., Suuriniemi, S., Kolehmainen, J., Kettunen, L., & Ikäheimo, J. (2017). Analysis of direct-on-line synchronous reluctance machine start-up using a magnetic field decomposition. IEEE Transactions on Industry Applications, 53(3), 1852-1859. https://doi.org/10.1109/TIA.2016.2642891

Vancouver

Tampio J, Känsäkangas T, Suuriniemi S, Kolehmainen J, Kettunen L, Ikäheimo J. Analysis of direct-on-line synchronous reluctance machine start-up using a magnetic field decomposition. IEEE Transactions on Industry Applications. 2017;53(3):1852-1859. https://doi.org/10.1109/TIA.2016.2642891

Author

Tampio, Juha ; Känsäkangas, Tero ; Suuriniemi, Saku ; Kolehmainen, Jere ; Kettunen, Lauri ; Ikäheimo, Jouni. / Analysis of direct-on-line synchronous reluctance machine start-up using a magnetic field decomposition. Julkaisussa: IEEE Transactions on Industry Applications. 2017 ; Vuosikerta 53, Nro 3. Sivut 1852-1859.

Bibtex - Lataa

@article{4cde7ab3af9b46f5a996c35e0e4c6a29,

title = "Analysis of direct-on-line synchronous reluctance machine start-up using a magnetic field decomposition",

abstract = "Direct-on-line synchronous reluctance machines combine the characteristics of induction machines and synchronous reluctance machines. Saturation of core materials, the eddy currents, and the asymmetry of the rotor core and cage make it difficult to predict to which kind of loads a machine can synchronize. In this paper, the start-up of a direct-on-line synchronous reluctance machine is analyzed with a magnetic field decomposition that makes it possible to quantify and isolate forces between any two distinct parts of an electric machine using a transient time-stepping finite element field solution. The results show explicitly, which portion of the torque is produced by the rotor core and which by the rotor cage. Compared to conventional average torque analyses (also known as pseudo-constant-speed or quasi-steady state analyses) used to distinguish between the torque on the rotor core and cage, the proposed method makes no assumptions on the state of the machine. This results in a more detailed view of the starting transient.",

author = "Juha Tampio and Tero K{\"a}ns{\"a}kangas and Saku Suuriniemi and Jere Kolehmainen and Lauri Kettunen and Jouni Ik{\"a}heimo",

year = "2017",

doi = "10.1109/TIA.2016.2642891",

language = "English",

volume = "53",

pages = "1852--1859",

journal = "IEEE Transactions on Industry Applications",

issn = "0093-9994",

publisher = "Institute of Electrical and Electronics Engineers",

number = "3",

}

RIS (suitable for import to EndNote) - Lataa

TY - JOUR

T1 - Analysis of direct-on-line synchronous reluctance machine start-up using a magnetic field decomposition

AU - Tampio, Juha

AU - Känsäkangas, Tero

AU - Suuriniemi, Saku

AU - Kolehmainen, Jere

AU - Kettunen, Lauri

AU - Ikäheimo, Jouni

PY - 2017

Y1 - 2017

N2 - Direct-on-line synchronous reluctance machines combine the characteristics of induction machines and synchronous reluctance machines. Saturation of core materials, the eddy currents, and the asymmetry of the rotor core and cage make it difficult to predict to which kind of loads a machine can synchronize. In this paper, the start-up of a direct-on-line synchronous reluctance machine is analyzed with a magnetic field decomposition that makes it possible to quantify and isolate forces between any two distinct parts of an electric machine using a transient time-stepping finite element field solution. The results show explicitly, which portion of the torque is produced by the rotor core and which by the rotor cage. Compared to conventional average torque analyses (also known as pseudo-constant-speed or quasi-steady state analyses) used to distinguish between the torque on the rotor core and cage, the proposed method makes no assumptions on the state of the machine. This results in a more detailed view of the starting transient.

AB - Direct-on-line synchronous reluctance machines combine the characteristics of induction machines and synchronous reluctance machines. Saturation of core materials, the eddy currents, and the asymmetry of the rotor core and cage make it difficult to predict to which kind of loads a machine can synchronize. In this paper, the start-up of a direct-on-line synchronous reluctance machine is analyzed with a magnetic field decomposition that makes it possible to quantify and isolate forces between any two distinct parts of an electric machine using a transient time-stepping finite element field solution. The results show explicitly, which portion of the torque is produced by the rotor core and which by the rotor cage. Compared to conventional average torque analyses (also known as pseudo-constant-speed or quasi-steady state analyses) used to distinguish between the torque on the rotor core and cage, the proposed method makes no assumptions on the state of the machine. This results in a more detailed view of the starting transient.

U2 - 10.1109/TIA.2016.2642891

DO - 10.1109/TIA.2016.2642891

M3 - Article

VL - 53

SP - 1852

EP - 1859

JO - IEEE Transactions on Industry Applications

JF - IEEE Transactions on Industry Applications

SN - 0093-9994

IS - 3

ER -

TUTCRIS