References Ë 213
References
[1]Wang J, Wang S, Zeng Y, Huang H, Luo F, Xu Z, et al. The first man–loading high temperature
superconducting Maglev test vehicle in the world. Physica C. 2002;378–381:809–814.
[2]Wang JS, Wang SY. A superconducting Maglev system. Chinese patent, No. ZL 01128867.1,
2001.
[3]Schultz L, de Haas O, Verges P, Beyer C, Rohlig S, Olsen H, et al. Superconductively levitated
transport system – the SupraTrans project. IEEE Trans on Appl Supercond. 2005;15(2):2301–
2305.
[4]Kovalev KL, Koneev SM-A, Poltavec VN, et al. Pro 8th Int Symp Magn Susp Technol. (ISMST’8),
Dresden, Germany; 2005. p. 51.
[5]Stephan RM, Ferreira AC, de Andrade R, Neves MA, Jr., Cruzmoreira MA, Rosario MAP, et al.
A superconducting levitated small scale vehicle with linear synchronous motor. IEEE Int Sym
Indust Electro. 2004;1:206–209.
[6]Sotelo GG, Dias DH, Machado OJ, David ED, de Andrade R, Jr., Stephan RM, et al. Experiments
in a real scale Maglev vehicle prototype. J Phys Conf Ser. 2010;234:032054.
[7]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;43:999–1002.
[8]D’Ovidio G, Crisia F, Lanzara G. A. “V” shaped superconducting levitation module for lift and
guidance of a magnetic transportation system. Physica C. 2008;468:1036–1040.
[9]Moon FC. Superconducting levitation: applications to bearings and magnetic transportation.
New York: Wiley; 1994.
[10]Murakami M. Materials developments and applications of bulk Re–Ba–Cu–O superconductors.
In: Narlikar A, editor. Frontiers in superconducting materials, Springer Verlag; 2005.
pp. 869–884.
[11]Wang JS, Wang SY. Synthesis of bulk superconductors and their properties on permanent
magnet guideway. In: Narlikar A, editor. Frontiers in superconducting materials, Springer
Verlag; 2005. pp. 885–912.
[12]Wang JS, Wang SY, Zeng YW, Deng CY, Ren ZY, Wang XR, et al. The present status of the
high temperature superconducting Maglev vehicle in China. Supercond Sci Technol.
2005;18(2):S215.
[13]Song HH, Wang JS, Wang SY, Ren ZY, Wang XR, de Haas O, Fuchs G, Schultz L. Studies of YBCO
electromagnetic properties for high-temperature superconductor Maglev technology. In:
Martins BP, editor. New topics in superconductivity research. Nova Science Publishers Inc.;
- pp. 107–156.
[14]Wang JS, Wang SY. High temperature superconducting Maglev measurement system. In: Kr
sharma M, editor. Advances in measurement systems. InTech; 2010. pp. 51–80.
[15]Ma GT, Wang JS, Wang SY. 3-D Finite-element modelling of a Maglev system using bulk
high-Tcsuperconductor and its application. In: Luiz AM, editor. Applications of high-Tc
superconductivity. InTech; 2011. pp. 119–146.
[16]Deng ZG, Wang JS, Zheng J, Lin QX, Wang SY. Quasi-static optimization of HTS Maglev systems
with a focus on bulk superconductor part. In: Miryala M, editor. Superconductivity: recent
developments and new production technologies. Nova Science Publishers; 2012. pp. 215–239.
[17]Wang JS, Wang SY, Zheng J. Recent development of high temperature superconducting Maglev
system in China. IEEE Trans on Appl Supercond. 2009;19(3):2142–2147.
[18]Wang JS, Wang SY, Zheng J, Deng ZG, Lu YY, Ma GT, et al. Recent developments of high
temperature superconducting Maglev system. Chinese J Low Temp Phys. 2009;31(5):142–150.
(In Chinese).