High tc superconducting electronics research at bellcore/rutgers

A. Inam, Q. Li, X. X. Xi, X. D. Wu, B. Dutta, R. Ramesh, J. A. Martinez, B. Wilkens, J. Barner, L. Nazar, D. M. Hwang, C. C. Chang, S. A. Schwarz, H. Dorsett, L. DiDomenico, C. Weiss, A. Findikoglu, D. Hemmick, J. M. Tarascon, C. T. RogersT. Venkatesan

Research output: Contribution to journalArticle

Abstract

Recent accomplishments such as the demonstration of low microwave surface resistance over a wide range of frequencies and low magnetic flux noise in high quality thin films of the 90 K superconductor YBa2Cu3O7-x (YBCO), have heightened the hope that the new high temperature superconductors (HTSC) can play an important technological role. With improvement in the quality of films, very exciting superconducting state properties which till now were masked by inhomogeneities introduced by the fabrication processes, are beginning to be uncovered. Progress in these areas has been easiest for those in the community who initially chose to focus on understanding the materials issues relating to the growth of high quality thin films and single crystals. Current techniques for studying these materials include measurements of the high frequency response of single layer YBCO films in order to reveal the intrinsic properties of the superconductors and gauge their suitability for technological applications. By alloying the superconductors in the cation sites, we can also extract information on the mechanisms of superconductivity in these systems, generate new families of lattice matched materials, such as the Y1-yPryBa2Cu3O7-x system which for y=0 to 1 possess a variety of electrical properties and can form building blocks for multilayer junctions or superlattices.

Original languageEnglish (US)
Pages (from-to)148-160
Number of pages13
JournalProceedings of SPIE - The International Society for Optical Engineering
Volume1187
DOIs
StatePublished - Mar 19 1990

Fingerprint

Superconductor
Superconducting materials
Electronic equipment
Electronics
Thin Films
electronics
High-temperature Superconductors
Thin films
Surface resistance
Superlattices
High temperature superconductors
Electrical Properties
Superconductivity
Magnetic flux
Frequency Response
thin films
Single Crystal
Alloying
Inhomogeneity
high temperature superconductors

All Science Journal Classification (ASJC) codes

  • Electronic, Optical and Magnetic Materials
  • Condensed Matter Physics
  • Computer Science Applications
  • Applied Mathematics
  • Electrical and Electronic Engineering

Cite this

Inam, A. ; Li, Q. ; Xi, X. X. ; Wu, X. D. ; Dutta, B. ; Ramesh, R. ; Martinez, J. A. ; Wilkens, B. ; Barner, J. ; Nazar, L. ; Hwang, D. M. ; Chang, C. C. ; Schwarz, S. A. ; Dorsett, H. ; DiDomenico, L. ; Weiss, C. ; Findikoglu, A. ; Hemmick, D. ; Tarascon, J. M. ; Rogers, C. T. ; Venkatesan, T. / High tc superconducting electronics research at bellcore/rutgers. In: Proceedings of SPIE - The International Society for Optical Engineering. 1990 ; Vol. 1187. pp. 148-160.
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abstract = "Recent accomplishments such as the demonstration of low microwave surface resistance over a wide range of frequencies and low magnetic flux noise in high quality thin films of the 90 K superconductor YBa2Cu3O7-x (YBCO), have heightened the hope that the new high temperature superconductors (HTSC) can play an important technological role. With improvement in the quality of films, very exciting superconducting state properties which till now were masked by inhomogeneities introduced by the fabrication processes, are beginning to be uncovered. Progress in these areas has been easiest for those in the community who initially chose to focus on understanding the materials issues relating to the growth of high quality thin films and single crystals. Current techniques for studying these materials include measurements of the high frequency response of single layer YBCO films in order to reveal the intrinsic properties of the superconductors and gauge their suitability for technological applications. By alloying the superconductors in the cation sites, we can also extract information on the mechanisms of superconductivity in these systems, generate new families of lattice matched materials, such as the Y1-yPryBa2Cu3O7-x system which for y=0 to 1 possess a variety of electrical properties and can form building blocks for multilayer junctions or superlattices.",
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Inam, A, Li, Q, Xi, XX, Wu, XD, Dutta, B, Ramesh, R, Martinez, JA, Wilkens, B, Barner, J, Nazar, L, Hwang, DM, Chang, CC, Schwarz, SA, Dorsett, H, DiDomenico, L, Weiss, C, Findikoglu, A, Hemmick, D, Tarascon, JM, Rogers, CT & Venkatesan, T 1990, 'High tc superconducting electronics research at bellcore/rutgers', Proceedings of SPIE - The International Society for Optical Engineering, vol. 1187, pp. 148-160. https://doi.org/10.1117/12.965157

High tc superconducting electronics research at bellcore/rutgers. / Inam, A.; Li, Q.; Xi, X. X.; Wu, X. D.; Dutta, B.; Ramesh, R.; Martinez, J. A.; Wilkens, B.; Barner, J.; Nazar, L.; Hwang, D. M.; Chang, C. C.; Schwarz, S. A.; Dorsett, H.; DiDomenico, L.; Weiss, C.; Findikoglu, A.; Hemmick, D.; Tarascon, J. M.; Rogers, C. T.; Venkatesan, T.

In: Proceedings of SPIE - The International Society for Optical Engineering, Vol. 1187, 19.03.1990, p. 148-160.

Research output: Contribution to journalArticle

TY - JOUR

T1 - High tc superconducting electronics research at bellcore/rutgers

AU - Inam, A.

AU - Li, Q.

AU - Xi, X. X.

AU - Wu, X. D.

AU - Dutta, B.

AU - Ramesh, R.

AU - Martinez, J. A.

AU - Wilkens, B.

AU - Barner, J.

AU - Nazar, L.

AU - Hwang, D. M.

AU - Chang, C. C.

AU - Schwarz, S. A.

AU - Dorsett, H.

AU - DiDomenico, L.

AU - Weiss, C.

AU - Findikoglu, A.

AU - Hemmick, D.

AU - Tarascon, J. M.

AU - Rogers, C. T.

AU - Venkatesan, T.

PY - 1990/3/19

Y1 - 1990/3/19

N2 - Recent accomplishments such as the demonstration of low microwave surface resistance over a wide range of frequencies and low magnetic flux noise in high quality thin films of the 90 K superconductor YBa2Cu3O7-x (YBCO), have heightened the hope that the new high temperature superconductors (HTSC) can play an important technological role. With improvement in the quality of films, very exciting superconducting state properties which till now were masked by inhomogeneities introduced by the fabrication processes, are beginning to be uncovered. Progress in these areas has been easiest for those in the community who initially chose to focus on understanding the materials issues relating to the growth of high quality thin films and single crystals. Current techniques for studying these materials include measurements of the high frequency response of single layer YBCO films in order to reveal the intrinsic properties of the superconductors and gauge their suitability for technological applications. By alloying the superconductors in the cation sites, we can also extract information on the mechanisms of superconductivity in these systems, generate new families of lattice matched materials, such as the Y1-yPryBa2Cu3O7-x system which for y=0 to 1 possess a variety of electrical properties and can form building blocks for multilayer junctions or superlattices.

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