Fabrication and Charging Test of HTS Field Windings Using HTS Contactless Rotary Excitation Device

Ji Hyung Kim; Huu Luong Quach; Chang Jin Boo; Yong Soo Yoon; Haeryong Jeon; Seunghak Han; Tae Kuk Ko; Hyung Wook Kim; Young Sik Jo; Heui Joo Park; Jihoon Lee; Haigun Lee; Ho Min Kim

doi:10.1109/TASC.2019.2903283

Fabrication and Charging Test of HTS Field Windings Using HTS Contactless Rotary Excitation Device

Ji Hyung Kim, Huu Luong Quach, Chang Jin Boo, Yong Soo Yoon, Haeryong Jeon, Seunghak Han, Tae Kuk Ko, Hyung Wook Kim, Young Sik Jo, Heui Joo Park, Jihoon Lee, Haigun Lee, Ho Min Kim

Department of Electrical and Electronic Engineering

Research output: Contribution to journal › Article › peer-review

12 Citations (Scopus)

Abstract

This paper presents the results of the fabrication and preliminary charging test of second-generation higherature superconducting (2G HTS) coils for the rotor field winding of a 1-kW-class HTS rotating machine (HTSRM). This machine technically employs an HTS contactless rotary excitation device (CRED), which is the so-called rotary flux pump, to charge the HTS field windings using a noncontact excitation method. In this study, the major components of the 1-kW-class HTSRM, such as the 2G HTS coils for the rotor field pole of the rotating machine, HTS strands with a toroidal head for the rotary part of CRED, and stationary part of CRED, were fabricated and assembled. Then, the charging performance of the field operating current was tested in preliminary experiments. In particular, to confirm the technical feasibility of CRED on application to the 1-kW-class HTSRM, the HTS field coils were charged under various operating conditions of the HTS CRED in a stationary flux-pump mode.

Original language	English
Article number	8661675
Journal	IEEE Transactions on Applied Superconductivity
Volume	29
Issue number	5
DOIs	https://doi.org/10.1109/TASC.2019.2903283
Publication status	Published - 2019 Aug

Bibliographical note

Publisher Copyright:
© 2002-2011 IEEE.

All Science Journal Classification (ASJC) codes

Electronic, Optical and Magnetic Materials
Condensed Matter Physics
Electrical and Electronic Engineering

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10.1109/TASC.2019.2903283

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title = "Fabrication and Charging Test of HTS Field Windings Using HTS Contactless Rotary Excitation Device",

abstract = "This paper presents the results of the fabrication and preliminary charging test of second-generation higherature superconducting (2G HTS) coils for the rotor field winding of a 1-kW-class HTS rotating machine (HTSRM). This machine technically employs an HTS contactless rotary excitation device (CRED), which is the so-called rotary flux pump, to charge the HTS field windings using a noncontact excitation method. In this study, the major components of the 1-kW-class HTSRM, such as the 2G HTS coils for the rotor field pole of the rotating machine, HTS strands with a toroidal head for the rotary part of CRED, and stationary part of CRED, were fabricated and assembled. Then, the charging performance of the field operating current was tested in preliminary experiments. In particular, to confirm the technical feasibility of CRED on application to the 1-kW-class HTSRM, the HTS field coils were charged under various operating conditions of the HTS CRED in a stationary flux-pump mode.",

author = "Kim, {Ji Hyung} and Quach, {Huu Luong} and Boo, {Chang Jin} and Yoon, {Yong Soo} and Haeryong Jeon and Seunghak Han and Ko, {Tae Kuk} and Kim, {Hyung Wook} and Jo, {Young Sik} and Park, {Heui Joo} and Jihoon Lee and Haigun Lee and Kim, {Ho Min}",

note = "Publisher Copyright: {\textcopyright} 2002-2011 IEEE.",

year = "2019",

month = aug,

doi = "10.1109/TASC.2019.2903283",

language = "English",

volume = "29",

journal = "IEEE Transactions on Applied Superconductivity",

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AU - Kim, Ji Hyung

AU - Quach, Huu Luong

AU - Boo, Chang Jin

AU - Yoon, Yong Soo

AU - Jeon, Haeryong

AU - Han, Seunghak

AU - Ko, Tae Kuk

AU - Kim, Hyung Wook

AU - Jo, Young Sik

AU - Park, Heui Joo

AU - Lee, Jihoon

AU - Lee, Haigun

AU - Kim, Ho Min

PY - 2019/8

Y1 - 2019/8

N2 - This paper presents the results of the fabrication and preliminary charging test of second-generation higherature superconducting (2G HTS) coils for the rotor field winding of a 1-kW-class HTS rotating machine (HTSRM). This machine technically employs an HTS contactless rotary excitation device (CRED), which is the so-called rotary flux pump, to charge the HTS field windings using a noncontact excitation method. In this study, the major components of the 1-kW-class HTSRM, such as the 2G HTS coils for the rotor field pole of the rotating machine, HTS strands with a toroidal head for the rotary part of CRED, and stationary part of CRED, were fabricated and assembled. Then, the charging performance of the field operating current was tested in preliminary experiments. In particular, to confirm the technical feasibility of CRED on application to the 1-kW-class HTSRM, the HTS field coils were charged under various operating conditions of the HTS CRED in a stationary flux-pump mode.

AB - This paper presents the results of the fabrication and preliminary charging test of second-generation higherature superconducting (2G HTS) coils for the rotor field winding of a 1-kW-class HTS rotating machine (HTSRM). This machine technically employs an HTS contactless rotary excitation device (CRED), which is the so-called rotary flux pump, to charge the HTS field windings using a noncontact excitation method. In this study, the major components of the 1-kW-class HTSRM, such as the 2G HTS coils for the rotor field pole of the rotating machine, HTS strands with a toroidal head for the rotary part of CRED, and stationary part of CRED, were fabricated and assembled. Then, the charging performance of the field operating current was tested in preliminary experiments. In particular, to confirm the technical feasibility of CRED on application to the 1-kW-class HTSRM, the HTS field coils were charged under various operating conditions of the HTS CRED in a stationary flux-pump mode.

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Fabrication and Charging Test of HTS Field Windings Using HTS Contactless Rotary Excitation Device

Abstract

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