Superconducting electronics coming to market

IEEE Transactions on Applied Superconductivity

Volumn 9, Issue 2 PART 3, 1999, Pages 2825-2836

  Braginski, Alex I ^a  

^a FORSCHUNGSZENTRUM JÜLICH   (Germany)

Author keywords

[No Author keywords available]

Indexed keywords

DIGITAL FILTERS; ELECTRONICS INDUSTRY; HIGH TEMPERATURE SUPERCONDUCTORS; MARKETING; QUANTUM ELECTRONICS; WIRELESS TELECOMMUNICATION SYSTEMS;

SINGLE FLUX QUANTUM DIGITAL ELECTRONICS; SUPERCONDUCTING ELECTRONIC; WIRELESS TELECOMMUNICATION RECEIVER;

SQUIDS;

EID: 0032664056     PISSN: 10518223     EISSN: None     Source Type: Journal    
DOI: 10.1109/77.783621     Document Type: Article

References (58)

1. John M. Rowell, A technology roadmap for the superconducting electronics industry, this Conference.
2. Arnold H. Silver, Superconductivity in ElectronicsIEEE Trans Appl. Supercond. 7, pp.69-79, June 1997.
3. K.K. Likharev, RSFQ digital electronics: achievements, prospects and problems, this Conference.
4. The PSP-1000 and PSP-750 sampling oscilloscopes and time-domain reflectometers introduced by HYPRES, Inc. in 1987 and discontinued in 1990.
5. J.P. Wikswo, Jr., SQUID Magnetometers for Biomagnetism and Nondestructive TestingIEEE Trans. Appl. Supercond. 5, pp.74 120, (1995).
6. The Vectorview model by NEUROMAG, Ltd., (Finland) including two planar gradiometers and a magnetometer channel per sensing point.
7. BTI, Inc. (USA), CTF, Inc. (Canada) and Neuromag (Finland).
8. Yokogawa, Ltd., Japan.
9. Pioneered by BTI, Inc., USA.
10. Pioneered by CTF, Inc., Canada.
11. Prototype of the first large (61 -channel) cryocooled system was demonstrated in 1997 by Daikin, Ltd., Japan.
12. Pioneered by Veterans Adm. Hospital, Albuquerque, NM, USA.
13. X.H. Zeng, H. Soltner, D. Selbig, M Bode, M. Bick, F. Rüders, J. Schubert, W. Zander, M. Banzet, Y. Zhang, H. Bousack and A.I. Braginski, A High-Temperature rf SQUID system for MagnetocardiographyMeas. Sci. Technol. 9, pp. 1600-1606 (1998).
14. K. Brockmeier, L. Schmitz, J. Bobadilla Chavez, M. Burghoff, H. Koch, R. Zimmerrnann and L. Trahtns, Magnetocardiography and 32-Lead Potential Mapping: Repolarization in Normal Subjects During Pharmacologically Induced Stress'M. Cardiovasc. Electrophys. 8, pp. 615-626(1997).
15. D. Selbig, H. Soltner, M. Bode, K. Ziegert, H. Hailing, H. Bousack, L. Trahms and C. Stellbrink, Proc. BIOMAG '98 (in press)
16. G.M. Brittenham, D.E. Farrell, J.W. Harris, E.S. Feldman, EH. Danish, W.A. Muir, J.H. Tripp and E.M. Bellon, Magnetic-susceptibility measurement of human iron stores. New England J. Med., 307, pp. 1671-1675(1982).
17. R. Engelhardt, R.. Fischer, P. Nielsen and E.E. Gabbe, Iron quantification by non-invasive biomagnetic organ susceptometryin Biomag 96: Advances in Biomagnetism Research, Springer Verlag 1998 (in press).
18. [ 18] For example, by HYPRES, Inc., USA.
19. Mr. SQUID by Conductus, Inc., USA.
20. T.D. Gamble, W.M. Goubau and J. Clarke, Magnetotcllurics with a remote magnetic reference, Geophysics, 44, pp. 53-68 (1979)
21. M. Bick, G. Panaitov, Y. Zhang, H. Bousack, A.I. Braginski, U. Kalberkamp, H. Burkhardt and U. Matzander, A HTS rf SQUID magnetometer for geophysical exploration methods, this Conference.
22. By METRONIX GmbH, Germany
23. E. Dantsker, S. Tanaka and J. Clarke, High-Tc SQUfDs with slots or holes: low 1/f noise in ambient magnetic fields, Appl. Phys. Lett. 70, pp. 2037-2039(1997).
24. C.P. Foley, K.E. Leslie, R.A. Binks, C.J. Lewis, Murray, W., Sloggett, G.S., S. Lam, R.R. Barrow, M. Downey, and C. Hoffman, A report of field trails using HTS SQUID magnetometers for ground-based and airborne geophysical applications, this Conference.
25. D. Drung, T. Radie, H. Matz, H. Koch, S. Knappe, S. Mcnkcl and H. Burkhardt, A 2-channel wideband SQUID system for high-frequency geophysical applications, IEEE Trans. Appl. Supercond 7, pp. 3283 3286(1997).
26. By IPHT-Jena and PTB-Berlin, Germany.
27. H. Weinstock, A review of SQUID magnctometry applied to nondestructive evaluation, IEEE Trans, on Magnetics, 27, pp. 3231-3236 (1991), and references therein.
28. Y. Tavrin, M. Siegel and J.H. Hinken, Standard method for detection of magnetic defects in aircraft engine discs using a HTS SQUfD gradiometer, this Conference.
29. E.F. Fleet, S. Chatraphorn, F.C. Wellstood, S.M. Green and L.A. Knauss, HTS scanning SQUID microscopy of active circuits, this Conference.
30. NEOCERA, Inc., USA; patents issued and pending worldwide.
31. R. Hohmann, M. Maus, D. Lomparski, M. Griineklee, Y. Zhang, H.-J. Krause, H. Bousack, A.I. Braginski and Ch. Heiden. Aircraft wheel testing with machine-coolied gradiometer system, this Conference.
32. By Rohmann, GmbH, Germany
33. W.N. Podney, Development of electromagnetic microscope using HTS SQUIDs, this Conference
34. H.-J. Krause, R. Hohmann, M. Grüneklee, M. Maus, Y. Zhang, D. Lomparski, W. Wolf, H. Bousack and A.I. Braginski, Aicraft wheel and fuselage testing with HTS SQUID, Proc. of the 4th Twente Workshop on Superconductivity, pp. 8-15 (1998).
35. H. Itozaki, T. Nagaishi. H. Toyoda and H. Kugai, detection of fine iron particles in high-speed scrolled wire by HTS SQUID, IECE Trans. Electron. E80-C, pp. 1247-1251 (1997).
36. H. Weinstock, N. Tralshawala and J.R. Claycomb, SQUID NDE of wires, this Conference.
37. th Int'l. Conf. On Structural Faults and Repair, M.T. Forde, Ed., Engineering Technic Press, Edinburgh 1997, pp. 401-406.
38. Superconducting Technologies, Inc. (STI), USA.
39. Conductus, Inc. (CDTS), Illinois SuperconductorCorp. (ISC), and STI; Superconductor Core Technologies (SCT) suspended operations in early 1998.
40. The EC project SUCOMS, a consortium lead by GEC Marconi (England).
41. D.G. Smith and V.K. Jain, Superconducting filters for wireless communications: a reappraisal, this Conference.
42. Spectrum Master Duplexer by ISC, USA.
43. G. Kolesov, H. Chaloupka, A. Baumfalk and T. Kaiser, Planar HTS structures for high power applications in communications systems, J. Supercond. 10, pp. 179-187 (1997)..
44. A.C. Anderson, H. Wu, Z. Ma, P.A. Polakos, P.M. Mankiewich, A. Barfknecht and T. Kaplan, Transmit filters for wireless base stations, this Conference.
45. H. Chaloupka and D. Jedamzik, HTS Technology for UMTS radio base stations, Proc. PIMRC'98 (Boston, Sept. 7-11, 1998).
46. D.E. Oates and G.F. Dionne, Magnetically tunable superconducting resonators and filters, this Conference.
47. Ch. Wilker (DuPont Superconductivity), HTS cryoelectronics for satellite applications: system trade-offs and HTS thin-film properties, presented at the MRS 1997 Fall Symposium T (unpublished).
48. M. Klauda, analysis by Bosch Telecom GmbH, Germany, priv. communication (unpublished).
49. ComDev with DuPont and Lockheed Martin (Canada & USA), TRW (USA), Bosch Telecom (Germany).
50. German BMBF National Project, lead by Bosch Telecom GmbH, (M. Klauda, private communication, unpublished).
51. N. Klein, S. Schornstein, I.S. Ghosh, D. Schemion, M. Winter and C. Zuccaro, High-Q dielectric resonator devices at cryogenic temperatures, this Conference
52. S.B. Kaplan, O.K. Brock, D.V. Gaidarenko, D. Gupta, W. Li and S.V. Rylov, A superconductive flash memory with on-chip memory, this Conference.
53. S.V. Rylov et al., High resolution ADC using phase modulation-demolation architecture, this Conference
54. E.B. Wikborg, V.K. Semenov and K.K. Likharev, RSFQ front end for a software radio receiver, this Conference
55. E.B. Wikborg, V.K. Semenov and K.K. Likharev, RSFQ front end for a software radio receiver, this Conference.
56. M. Sander, CONECTUS, private information.
57. CONECTUS, released July 1998; note that the volume is that of superconducting components rather than that of complete systems.
58. ISIS-6, the 1996 joint forecast of of CSAC (US), ISTEC (Japan) and CONECTUS.