Proceedings of the Sixteenth International Cryogenic Engineering Conference/International Cryogenic Materials Conference: Part 1

Haruyama, T.; Mitsui, T.; Yamafuji, K.

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Table of contents
  • Contentsv
  • Committee membersxxxviii
  • Exhibitorsxxxix
  • Forewordxli
  • Greetings from the ICE Committeexliii
  • Greetings from the ICMC Boardxlv
  • Mendelssohn Awardxlvii
  • Mendelssohn Award Winnerxlix
  • Part I. Plenary Lectures1
  • Chapter 1. A way to commercialization of high-Tc superconductors3
  • Chapter 2. Development of the superconducting Maglev system in Japan13
  • Chapter 3. Cryogenic properties of advanced composites and their applications19
  • Chapter 4. 122-Channel SQUID neuromagnetometer for studies of information processing in the human br27
  • Chapter 5. Advances in cryocoolers33
  • Chapter 6. The Large Hadron Collider project45
  • Chapter 7. Overview of the ITER project53
  • Part II. Large Scale Refrigeration: Refrigeration Plants61
  • Chapter 8. Design and construction of cryogenic components for LHD63
  • Chapter 9. The constituent hardware of the large helium refrigeration plant for LHD67
  • Chapter 10. Simulation of the large helium refrigeration plant for LHD71
  • Chapter 11. Construction report of 10 kW class helium refrigerator for LHD75
  • Chapter 12. Cryogenic control system for the large helical device79
  • Chapter 13. Liquefaction control of 10 kW class cryogenic system for the LHD83
  • Chapter 14. Study of optimum operating condition for the helium refrigeration system of the LHD with87
  • Chapter 15. Cryogenic operation and testing of the extended LHC prototype magnet string91
  • Chapter 16. Demands in refrigeration capacity for the Large Hadron Collider95
  • Chapter 17. Simulation program for cryogenic plants at CERN99
  • Chapter 18. Operation of the cryogenic system for superconducting cavities in LEP103
  • Chapter 19. Thermodynamic booster for the CERN Omega cryoplant107
  • Chapter 20. Refrigeration system for the ATLAS experiment111
  • Chapter 21. The cryogenic system of the ATLAS experiment end cap toroids115
  • Chapter 22. Cryogenic design of the ATLAS thin superconducting solenoid magnet119
  • Chapter 23. Barrel toroid cryogenic system for the ATLAS detector123
  • Chapter 24. Performance study of the cryogenic system for ITER CS model coil127
  • Chapter 25. Engineering design of cryoplant for ITER131
  • Chapter 26. Interface detail design for ITER coil system135
  • Chapter 27. Development and operating experience of the nuclotron cryogenic system139
  • Chapter 28. Mathematical modeling of a Fermilab helium liquefier coldbox143
  • Chapter 29. HERA at lower temperatures?„ Operational test of the HERA cryogenic system at subatmos147
  • Chapter 30. Cryogenics for tokamak HT-7 SC toroidal magnet151
  • Chapter 31. Theoretical calculation of the large hydrogen liquefaction process155
  • Chapter 32. Development of helium refrigeration systems for 70 MW class superconducting generators159
  • Part III. Long Term Operation163
  • Chapter 33. Reliability of helium refrigeration systems for the TRISTAN detector magnets165
  • Chapter 34. Technical analysis and statistics from long term helium cryoplant operation with experim169
  • Chapter 35. Cryogenics for CERN experiments. Past, present and future173
  • Chapter 36. Present state of Tevatron lower temperature operation179
  • Chapter 37. Cryogenic system for TRISTAN superconducting RF cavities: Description and operating expe183
  • Part IV. Compressors187
  • Chapter 38. High power refrigeration at temperatures around 2.0 K189
  • Chapter 39. A cryogenic axial-centrifugal compressor for superfluid helium refrigeration195
  • Chapter 40. Upgrade of the CERN cryogenic station for superfluid helium testing of prototype LHC sup199
  • Chapter 41. Performance analysis of multistage 80 K centrifugal compressors for helium refrigerator203
  • Chapter 42. Design manufacture and consideration for test result of centrifugal cold compressor for207
  • Chapter 43. Development of helium oil free screw compressor211
  • Part V. Turboexpanders215
  • Chapter 44. The experimental study of self-acting gas-lubricated tilting-pad thrust bearings for cry217
  • Chapter 45. A genetic algorithm based optimization design method for cryogenic turboexpander221
  • Chapter 46. Predicting performance of helium expansion turbines using similarity principles225
  • Chapter 47. Stability study of herringbone-grooved, journal gas bearing for small cryogenic expansio229
  • Chapter 48. Development of foil journal bearing for small high speed cryogenic turboexpander233
  • Part VI. Cryocoolers: Pulse Tube Coolers237
  • Chapter 49. Evaluation of experimental pulse tube refrigerator data with predictions of the thermoac239
  • Chapter 50. Spontaneous oscillations of gas in a glass resonator: Observation of the local velocity243
  • Chapter 51. Linear model of flow pattern for a valved three-stage pulse tube refrigeration247
  • Chapter 52. Radial temperature and velocity profiles of oscillating flows in a pulse tube refrigerat251
  • Chapter 53. Investigation of velocity profiles in oscillating flows inside a pulse tube refrigerator255
  • Chapter 54. Intrinsic behaviour of a four valve pulse tube refrigerator259
  • Chapter 55. Anomaly of one-stage double-inlet pulse tube refrigerator263
  • Chapter 56. Temperature stability of pulse tube refrigerators267
  • Chapter 57. Pulse tube refrigerator with low temperature switching valve271
  • Chapter 58. On-off timing computer control system for valved refrigerator275
  • Chapter 59. Increase in reservoir pressure of orifice pulse tube refrigerators279
  • Chapter 60. Operation of a high-Tc SQUID gradiometer by use of a pulse tube refrigerator283
  • Chapter 61. Analysis and investigation of large diameter pulse tube refrigerator287
  • Chapter 62. Active-buffer pulse-tube refrigerator291
  • Chapter 63. An inter-phasing pulse tube refrigerator for high refrigeration efficiency295
  • Chapter 64. Experimental research on two-stage pulse tube refrigerator299
  • Chapter 65. Performance of the hybrid two-stage refrigerator303
  • Chapter 66. Improvement of the two stage pulse tube refrigerator reaching to 4 K307
  • Chapter 67. Nitrogen precooled multi-stage pulse tube refrigerator reaching 2.1 K311
  • Chapter 68. Thermodynamic calculation of three-stage pulse tube refrigerator315
  • Chapter 69. Three-staged pulse tube refrigerator with linear motor compressor319
  • Part VII. G-M Coolers323
  • Chapter 70. Effectiveness of magnetic regenerator material with low Tc below ~20 K„Very effective325
  • Chapter 72. Development of a 4 K GM/JT refrigerator for Maglev vehicle331
  • Chapter 73. Development of 2W class 4 K Gifford-McMahon cycle cryocooler335
  • Chapter 74. Optimization of intake and exhaust valves for 4 K Gifford-McMahon cryocooler339
  • Chapter 75. Investigation of the performance of a 4.2 K G-M refrigerator343
  • Chapter 76. Cooling performance of a pressurized HeII cryogenics system for the superconducting magn419
  • Chapter 77. A supercritical/superfluid He-cryostat for STEP423
  • Chapter 78. Design of thermal shield for the ITER cryostat427
  • Chapter 79. Design of superfluid-cooled cryostat for 1 GHz NMR spectrometer431
  • Chapter 80. A variable temperature cryostat to measure JnonCu(T) of ITER strands up to 20 teslas435
  • Chapter 81. Tests of the cryostat for 1.3 GHz superconducting cavity at T _< 1.8 K439
  • Chapter 82. Comparison of floating and thermalized multilayer insulation systems at low boundary tem443
  • Part VIII. Cooling Technique447
  • Chapter 83. A LHE economiser at 1.8 K449
  • Chapter 84. Low noise gas flow cryosystem for cooling high-Tc squid453
  • Chapter 85. Compact dilution refrigerator457
  • Chapter 86. Experimental study of the dilution refrigerator without 1 K pot461
  • Chapter 87. Numerical simulation of countercurrent heat exchangers in cryogenic systems465
  • Chapter 88. The operation experience with the dual cooling system of the POLO coil (two phase-superc469
  • Chapter 89. A vortex refrigerator for NMR experiments473
  • Chapter 90. Analytical model to calculate the transient thermo-mechanical behaviour of long thin str477
  • Chapter 91. Characterization of bonnetless cryogenic valves481
  • Chapter 92. Flexible corrugated cryotransferlines, long term experience at JET and the experience wi485
  • Chapter 93. Experimental results with superinsulated cryogenic transfer line test modules in THISTA489
  • Chapter 94. Design and construction of long cryogenic piping lines493
  • Chapter 95. Calculating radiation exchange factors of radiant cryocooler by the Monte Carlo method497
  • Chapter 96. Development of loop heat pipes for cryogenic applications501
  • Chapter 97. New cryosurgical probe suitable for endoscopic application in the minimal invasive thera505
  • Chapter 98. Thermosiphon cooler: A low microphonic cooling system for HTC-devices; especially for SQ509
  • Chapter 99. What happened to cryogenic and superconducting equipment in the Great Hanshin Earthquake513
  • Part IX. Superfluid Helium517
  • Chapter 100. Thermohydraulic behaviour of HeII in stratified co-current two-phase flow519
  • Chapter 101. Influence of fountain pressure on heat transfer to superfluid helium523
  • Chapter 102. Analysis and characterization of saturated bath He II heat exchangers527
  • Chapter 103. Experimental study of propagation characteristics of He I - He II interface531
  • Chapter 104. Steady and unsteady heat transfer from a horizontal wire with a wide range of diameter535
  • Chapter 105. Two dimensional heat transport in He II channel including a copper wall539
  • Chapter 106. Numerical investigation of evolution of vortex line density in the case of transient he543
  • Chapter 107. Heat transfer from superconductor wire to superfluid helium547
  • Chapter 108. The effect of spacer arrangement on the heat transfer in He I and He II channels551
  • Chapter 109. Pressure effect on the heat transfer in bath of superfluid helium555
  • Chapter 110. Kapitza conductance of niobium for S. R. F. cavities559
  • Chapter 111. Thermal behaviour of electrical multilayer insulation permeable to superfluid helium563
  • Chapter 112. Pressure gradient caused by quantized vortex in superfluid helium567
  • Chapter 113. Heat and mass transfer between two saturated He II baths571
  • Chapter 114. Measurement of characteristic time of quantized vortex development using a thermal shoc575
  • Part X. Heat Transfer579
  • Chapter 115. Non-dimensional correlation for boiling heat transfer from sintered porous layer surfac581
  • Chapter 116. Critical heat fluxes in pool boiling of subcooled liquid nitrogen at elevated pressures585
  • Chapter 117. The measurement of vapor bubble vibration during noisy film boiling in superfluid heliu
  • Chapter 118. Influence of surface roughness on transient nucleate boiling of cryogens593
  • Chapter 119. Superheating of liquid mixtures of 3He and 4He597
  • Chapter 120. Nucleate pool boiling heat transfer to slush hydrogen601
  • Chapter 121. Heat transfer characteristics of a prototype pool boiling superconductor to liquid heli605
  • Chapter 122. Temporal deterioration of helium heat transfer at moderate pulse heat load609
  • Chapter 123. Cryogenic characteristic investigation on heat transfer between gas and solids of an ad613
  • Chapter 124. Transient heat transfer from a silver sheathed high-Tc superconducting tape in liquid n617
  • Chapter 125. Surface treatment of aluminum heat switch621
  • Chapter 126. The study on the solid thermal contact resistance at low temperatures625
  • Chapter 127. Experimental study on thermal contact conductance at liquid helium temperature629
  • Part XI. Gas Properties633
  • Chapter 128. On the Joule-Thomson integral inversion curves of helium-3, helium-4 and hydrogen635
  • Chapter 129. A modified Patel-Teja equation of state for cryogenic fluids639
  • Chapter 130. Helium extraction from thermal spring gases643
  • Part XII. Measurements647
  • Chapter 131. Temperature measurement under high magnetic fields around 1.8 K by using CGR thermomete649
  • Chapter 132. New type of thin-film germanium resistance thermometer for use in a wide temperature ra653
  • Chapter 133. Thermoacoustic Taconis oscillations in helium-4 liquid level sensors657
  • Chapter 134. Use of strain gages for low temperature thermal expansion measurements661
  • Chapter 135. Strain measurements of stainless steel at low temperatures using electronic speckle pat665
  • Chapter 136. Friction and wear testing at cryogenic temperatures669
  • Chapter 137. A flexible and extensible monitoring system for large scale experiments673
  • Chapter 138. Development of a low temperature measurement and control system for measuring liquid ox677
  • Chapter 139. Investigation of thermal and vacuum transients on the LHC prototype magnet string681
  • Chapter 140. Innovative device producing double-layer cryogenic pellet685
  • Chapter 141. A new concept to detect He leaks on TORE SUPRA cryogenic plant689
  • Chapter 142. One consideration for recovery heat flux of directly heated wires693
  • Chapter 143. A novel superconductor V-I simulator for 77 K697
  • Chapter 144. The estimation of critical current density using SRPM and AC methods701
  • Author Index705
Book details
  • Vendor Elsevier S & T
  • SKU 9780080426884
  • ISBN-13 9780080539751
  • Author Haruyama, T.; Mitsui, T.; Yamafuji, K.
  • Category Technology & Engineering
  • Subject Engineering (General)

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This book contains the proceedings of the 16th ICEC/ICMC Conference, held in Kitakyushu, Japan, on 20th-24th May 1996. The Proceedings are presented in three volumes containing a total of 476 papers from 1484 authors.

The proceedings covers the main areas of: Large Scale Refrigeration. Cryocoolers. Cryogenic Engineering. Space Cryogenics. Application of Superconductivity. Oxide Superconductors. Metallic Superconductors. Metallic Materials. Non Metallic Materials.

In addition there are seven Plenary Lectures covering such diverse topics as commercialization of high-Tc superconductors, the continuing development of the Maglev system in Japan, and the Large Hadron Collider project.

The Proceedings comprise an excellent and up-to-date summary of research and development in the fields of Cryogenics and Superconductivity.