High Temperature Superconducting Magnetic Levitation

(やまだぃちぅ) #1
References Ë 115

[52]Eastham AR, Atherton DL. Superconducting maglev and LSM development in Canada. IEEE
Trans on Magnetics. 1975. MAG-11: 627–632.
[53]Atherton DL, Eastham AR, Belanger PR, Eggleton PL, Rudback NE. High speed magnetically
levitated transport development in Canada. J Adv Transp. 1980;14:73–105.
[54]Gutberlet HG. The German magnetic transportation program. IEEE Trans on Magnetics.
1974;MAG-10:417–420.
[55]Glatzel K, Khurdok G, Rogg D. The development of the magnetically suspended transportation
system in the Federal Republic of Germany. IEEE Trans Veh Technol. 1980;VT-29:3–17.
[56]Rogg D. Development of magnetic levitation transport systems in the Federal Republic
of Germany: survey, present state, prospects and reasons. International Conference on
Maglev’85;1985 Sep 17–19; Tokyo, Japan. Washington, DC: The National Academies of
Sciences, Engineering, and Medicine. p. 1–11.
[57]Yamamura S. Magnetic levitation technology of tracked vehicles present status and
prospects. IEEE Trans on Magnetics. 1976;12:874–878.
[58]Sawadi Kazuo. Superconducting Maglev developed by RIRI and JR central. Japan railway &
transport review. 2000;25:58–60.
[59]http://en.wikipedia.org/wiki/File:JNR_ML500_1.jpg.
[60]https://3dwarehouse.sketchup.com/model.html?redirect=1&mid=
6dfe0a02e0809cbc666bcaed61061f38&ct=lc&hl=zh-CN.
[61]Shirakuni N, Terai M, Watanabe K, Takahashi K. The status of development and running tests
of superconducting Maglev. Maglev 2006; Germany, Sep. 2006, p. 27–34.
[62]Ono M, Koga S, Ohtsuki H. Japan’s superconducting Maglev train. IEEE Instrum Meas Mag.
March 2002;5(1):9–15.
[63]Sawada K. Outlook of the superconducting Maglev. Proceedings of the IEEE. 2009;97:
1881–1885.
[64]Sakamoto S, Watanabe H, Takizawa T, Suzuki E, Terai M. Development of a Maglev
superconducting magnet for the Yamanashi test line in Japan: vibration characteristics and
analysis for design. IEEE Trans on Appl Supercond. 1997;7:3791–3796.
[65]Terai M, Igarashi M, Kusada S, Nemoto K, Kuriyama T, Hanai S, Yamashita T, Nakao H.
The R&D project of HTS magnets for the superconducting Maglev. IEEE Trans on Appl
Supercond. 2006;16:1124–1129.
[66]Zhang Y, Xu SG. In: Lin LZ, Shen GL, Yan LG, editor. Proceeding of Fifteenth International
Conference on Magnet Technology, Science Press; 1998. p. 763–766.
[67]Schultz L, de Haas O, Verges P, Beyer C, Rohlig S, Olsen H, Kuhn L, Berger D, Noteboom U,
Funk U. Superconductively levitated transport system – the SupraTrans project. IEEE Trans on
Appl Supercond. 2005;15:2301–2305.
[68]Kovalev KL, Koneev SMA, Poltavec VN, et al. Magnetically levitated high-speed carriages
on the basis of bulk HTS elements. Pro. 8th Intern Symp Magn Susp Technol. (ISMST’8),
Dresden; 2005. p. 51.
[69]Stephan RM, Nicolsky R, Neves MA, Ferreira AC, de Andrade R, Jr., Cruz Moreira MA,
Rosario MA, Machado OJ. A superconducting levitation vehicle prototype. 2003 IEEE Intern
Sym Indust Electro. 2004;1:206–209.
[70]Sotelo GG, Dias DH, Machado OJ, David ED, de Andrade R, Jr., Stephan RM, Costa GC.
Experiments in a real scale Maglev vehicle prototype. J Phys Conf Ser. 2010;234:032054.
[71]Deng Z, Wang J, Zheng J, Zhang Y, Wang S. An eflcient and economical way to enhance the
performance of present HTS Maglev systems by utilizing the anisotropy property of bulk
superconductors. Private communication. 2013.
[72]Okano M, Iwamoto T, Furuse M, Fuchino S, Ishii I. Running performance of a pinning-type
superconducting magnetic levitation guide. J Phys Conf Ser. 2006;43:999.

Free download pdf