Advances in Cryogenic Engineering

1. Front Matter

   Pages i-xvi

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2. Superconductivity Applications—MHD and Fusion Magnets

   1. Superconducting MHD Magnet Engineering Program

      • P. G. Marston, A. M. Dawson, D. B. Montgomery, J. E. C. Williams

      Pages 1-11

   2. Impact of High-Current Operation on the Cost of Superconducting Magnet Systems for Large-Scale MHD Applications

      • R. J. Thome, R. D. Pillsbury, H. R. Segal, B. O. Pederson

      Pages 12-18

   3. Final Design of a Superconducting MHD Magnet for the Coal-Fired Flow Facility at the University of Tennessee Space Institute

      • S.-T. Wang, L. R. Turner, L. Genens, W. Pelczarski, J. Hoffman, J. Gonczy et al.

      Pages 19-29

   4. Cryogenic Aspects of the UTSI-CFFF Superconducting Dipole Magnet for MHD Research

      • R. C. Niemann, S.-T. Wang, J. W. Dawson, L. Genens, R. P. Smith, L. R. Turner et al.

      Pages 30-38

   5. Safety Analysis of the UTSI-CFFF Superconducting Magnet

      • L. R. Turner, S.-T. Wang, R. P. Smith, P. C. Vander Arend, Y.-H. Hsu

      Pages 39-48

   6. Engineering Aspects of Cryogenic Laser-Fusion Targets

      • D. L. Musinski, T. M. Henderson, R. J. Simms, T. R. Pattinson, R. B. Jacobs

      Pages 49-60

3. Superconductivity Applications—Energy Transfer and Storage

   1. Energy Transfer in a System of Superconductive Magnets

      • M. Masuda, T. Shintomi, K. Asaji

      Pages 61-68

   2. Thermal Cycle Tests of a Modeled Superconducting Transmission Line

      • C. F. Sindt, P. R. Ludtke

      Pages 69-80

   3. Design of a 400-kJ Pulsed Energy Storage Coil

      • S. K. Singh, C. J. Heyne, D. T. Hackworth, M. A. Janocko, P. W. Eckels, J. H. Murphy

      Pages 81-89

   4. Operating Characteristics of a 1.5-MJ Pulsed Superconducting Coil

      • S. H. Kim, S.-T. Wang, M. Lieberg

      Pages 90-97

   5. 3-MJ Magnet for Superconductive Energy Storage

      • T. Shintomi, M. Masuda, H. Sato, K. Asaji

      Pages 98-104

   6. Conceptual Design of a 20-MJ Superconducting Forced-Cooled Ohmic-Heating Coil

      • S. K. Singh, J. H. Murphy, M. A. Janocko, H. E. Haller, D. C. Litz, P. W. Eckels et al.

      Pages 105-113

   7. Shape Optimization Study for a Three-Tunnel Superconductive Energy Storage Magnet

      • M. N. El-Derini, R. W. Boom

      Pages 114-119

   8. 20-kA Power Supply for Large Superconductive Coils

      • M. Masuda, T. Shintomi, K. Asaji

      Pages 120-126

4. Superconductivity Applications—Rotating Machinery

   1. Superconducting Generator Design for Airborne Applications

      • B. B. Gamble, T. A. Keim

      Pages 127-136

   2. Superconducting Field Winding for a 10-MVA Generator

      • K. A. Tepper, J. V. Minervini, J. L. Smith Jr.

      Pages 137-144

   3. Conductive Armature Shielding Design Concepts for Slow-Speed Superconducting Generators in the 40- To 400-MVA Range

      • S. Kuznetsov

      Pages 145-155

   4. Optimization of Superconducting Cryoturbogenerator Field-Winding Parameters

      • B. I. Verkin, I. S. Zhitomirskii, R. V. Gavrilov

      Pages 156-162

5. Superconductivity Applications—Magnet Technology

   1. Superconducting Compensating Solenoids for the Cello Detector Experiment at Petra

      • W. Barth, N. Fessler-Wilhelmi, W. Lehmann, P. Turowski

      Pages 163-174

The Cryogenic Engineering Conference celebrated its Silver Anniversary at the 1979 Conference held at Madison, Wisconsin. For many it provided an opportunity to reminisce about the first Cryogenic Engineering Conference convened at the National Bureau of Standards in Boulder, Colorado and also about the many following conferences and advances that had been reported at these conferences. It is difficult to realize that the first Cryogenic Engineering Conference was held before the advent of multilayer insulation, the space age, large-scale LNG Operations and superconductivity applications. The evolution of these activities has been carefully recorded in past volumes of the Advances in Cryogenic Engineering. · Once again, the Cryogenic Engineering Conference is happy to have had the International Cryogenic Materials Conference cohost this meeting at the University of Wisconsin. Collaboration between these two conferences has proven to be mutually beneficial by providing the cryogenic engineer with an in-depth exposure to materials properties, selection, and utilization to complement the exposure to new applications and design concepts. The papers presented at this joint conference as part of the International Cryogenic Materials Conference will be published as Volume 26 of the Advances in Cryogenic Engineering.

• LNG
• cryogenics
• design
• engine
• evolution
• liquified natural gas
• material
• materials
• materials properties
• silver
• space
• superconductivity

• Engineering Research Center, University of Colorado, Boulder, USA

  K. D. Timmerhaus

• Department of Aerospace Engineering Sciences, University of Colorado, Boulder, USA

  H. A. Snyder

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