Development of an Impedance Matching Program for Balancing the Current Distribution in a Tri-axial HTS Power Cable

被引:7
作者
Ha, Sun-Kyoung [1 ]
Kim, Sung-Kyu [1 ]
Kim, Jin-Geun [1 ]
Park, Minwon [1 ]
Yu, In-Keun [1 ]
Lee, Sangjin [2 ]
Sim, Kideok [3 ]
机构
[1] Changwon Natl Univ, Chang Won 641773, South Korea
[2] Uiduk Univ, Gyeongju 780713, South Korea
[3] Korea Electrotechnol Res Inst, Chang Won 641120, South Korea
关键词
HTS power cable; Impedance matching program; Inherent imbalance; Tri-axial HTS power cable; AC LOSS; MULTILAYER;
D O I
10.1007/s10948-012-2012-4
中图分类号
O59 [应用物理学];
学科分类号
摘要
The tri-axial high temperature superconducting (HTS) power cable design has several advantages when compared with other HTS power cables. However, this design has an imbalance in the three phase currents, as the phase conductors of the tri-axial HTS power cable have different radii. The radii of the phase conductors impact the value of inductance and capacitance for the cable, and the values are determined by the winding pitch length and the winding direction. Thus, the current imbalance can be minimized through the adjustment of the winding pitch length, the radius of each layer, and the winding direction. It takes a lot of time to manually calculate an impedance and to find a matched impedance. So the impedance of the tri-axial HTS power cable, according to its shape, was analyzed and the impedance matching program (IMP) was developed using LabVIEW (Laboratory Virtual Instrument Engineering Workbench) to solve this problem. IMP finds the matching impedance automatically by calculating the impedance according to the tri-axial HTS cable dimension. Consequently, this could save a lot of time, and so this program will be applied to the design of the tri-axial HTS power cable effectively.
引用
收藏
页码:759 / 762
页数:4
相关论文
共 9 条
[1]   Development of a single-phase 30 m HTS power cable [J].
Cho, JW ;
Bae, JH ;
Kim, HJ ;
Sim, KD ;
Kim, S ;
Jang, HM ;
Lee, CY ;
Kim, DW .
CRYOGENICS, 2006, 46 (05) :333-337
[2]   Balanced Three-Phase Distribution Experiment of a Triaxial HTS Cable [J].
Hamajima, Takataro ;
Ozcivan, A. Nuri ;
Shimoyama, Kazuki ;
Soeda, Seiji ;
Hu, Nannan ;
Yagai, Tsuyoshi ;
Tsuda, Makoto .
ELECTRONICS AND COMMUNICATIONS IN JAPAN, 2011, 94 (02) :51-58
[3]   V-t characteristics for partial discharge inception of high temperature superconducting power cable [J].
Hazeyama, M ;
Hayakawa, N ;
Matsuo, K ;
Masuda, T ;
Okubo, H .
PHYSICA C-SUPERCONDUCTIVITY AND ITS APPLICATIONS, 2002, 372 (PART 3) :1551-1554
[4]   AC loss calculation of a multi-layer HTS transmission cable considering the twist of each layer [J].
Lee, JK ;
Cha, G .
IEEE TRANSACTIONS ON APPLIED SUPERCONDUCTIVITY, 2001, 11 (01) :2433-2436
[5]  
Lindsay D., 2007, INSTALLATION COMMISS
[6]   Loss and inductance investigations in a 4-layer superconducting prototype cable conductor [J].
Olsen, SK ;
Træholt, C ;
Kühle, A ;
Tonnesen, O ;
Däumling, M ;
Ostergaard, J .
IEEE TRANSACTIONS ON APPLIED SUPERCONDUCTIVITY, 1999, 9 (02) :833-836
[7]   AC Loss of a Multi-Layer per Phase Tri-Axial HTS Cable with Balanced Current Distribution [J].
Ozcivan, A. N. ;
Toda, M. ;
Hu, N. ;
Hoshino, K. ;
Yagai, T. ;
Tsuda, M. ;
Hamajima, T. .
JOURNAL OF SUPERCONDUCTIVITY AND NOVEL MAGNETISM, 2011, 24 (1-2) :975-980
[8]   Experimental results of tri-axial HTS cable [J].
Shimoyama, Kazuki ;
Ozcivan, Nuri ;
Soeda, Seiji ;
Hu, Nannan ;
Onoe, Yuichi ;
Yagai, Tsuyoshi ;
Tsuda, Makoto ;
Hamajima, Takataro .
CRYOGENICS, 2009, 49 (08) :398-401
[9]   An investigation of the current distribution in the triaxial cable and its operational impacts on a power system [J].
Young, MA ;
Gouge, MJ ;
Pace, MO ;
Demko, JA ;
Duckworth, RC ;
Lue, JW ;
Fathy, A .
IEEE TRANSACTIONS ON APPLIED SUPERCONDUCTIVITY, 2005, 15 (02) :1751-1754