Cryogenics 1991: Vol 31 Index

11 Pages·1991·3 MB·English

Index to volume 31 (1991)
Articles (titles in italics refer to Research and technical notes)
January (pp 1 — 72) Automated temperature regulation system application to some high T,
for adiabatic demagnetization superconductors
Thermal conductivity of evacuated perlite refrigerators R.W. Willekers, H.C. Meijer, F. Mathu
at low temperatures as a function of G. Bernstein, S. Labov, D. Landis, N. and H. Postma 168-173
load and load history Madden, |. Millet, E. Silver and P. Liquid hydrogen condenser and current
W.P. Dubé, L.L. Sparks and A.J. Slifka Richards 99-101 lead designs for liquid hydrogen critical
3-6 Heat capacity and thermal expansion of current measurements of
Radiation resistance of polymer Zerodur and Zerodur M at low superconductors
composites at 77 K: effects of temperatures Y. lwasa 174-177
reinforcing fabric type, specimen S.J. Collocott and G.K. White 102-104 Relation of critical current density to
thickness, radiation type and irradiation Dependence of critical current density on diamagnetic magnetization in
atmosphere grain morphology in BiCaSrCu20, polycrystalline BiPbSrCaCuO
S. Egusa 7-15 ceramic Y.G. Wang, S.L. Yuan, Y. Yang, X.Z.
Magneto-resistance of a highly stable D.A. Cardwell, J.W. Cockburn, L. Xiong and G.C. Han 178-182
industrial-grade platinum resistance Cowey and H. Jones 105-109 Excess magnetization due to
thermometer between 20 and 240 K Stability analysis of a forced-flow cooled interfilamentary proximity coupling in
K. Nara, H. Kato and M. Okaji 16— 20 superconducting coil: numerical Nb — Ti multifilamentary wires
Dynamic stability of edge-cooled simulation of multiple stability N. Harada, Y. Mawatari, O. Miura, Y.
superconducting tapes A. Kamitani, T. Amano, S. Sekiya and Tanaka and K. Yamafuji 183-191
J. Schwartz, J.P. Friedberg and J.E.C. A. Ohara 110-118 General criterion for intrinsic stabilization
Williams 21 —32 Novel magnetometer and the interpretation of superconducting composites with
Effect of starting materials on the critical of low field magnetic hysteresis of high high resistive matrix
parameters of superconducting T,. superconductors P. Maccioni and B. Turck 192-203
TiCaBaCuO compounds G.E. Gough, M.S. Colclough, D.A. Cool-down efficiency of circulation type
|. Kirschner, S. Leppavuori, R. Laiho, O'Connor, F. Wellhofer, N.McN. Alford superconducting devices
A.D. Caplin, |. Halasz, T. Porjesz, A. and T.W. Button 119-127 S.P. Gorbachev and A.A. Krikunov
Uusimaki, G. Zsolt, E. Lahderanta, T. Effect of geometrical deformations on the 204 —- 208
Karman, J. Laverty and Gy. Kovacs strength and homogeneity of magnetic Effective passivation of YBaCuO
33-40 fields trapped in superconducting superconducting bridges by photoresist
77 -—4.2 K downlead concept based on cylinders overlayers
thin-film BiCaSrCu oxide S.H. Dietzfelbinger and M.G. Richards G.S.N. Reddy, A.K. Gupta, V.S. Tomar,
W.N. Lawless 41 — 47 128-131 N. Khare, V.N. Ojha and D.K. Walia
High gain micropower amplifier for Sidelobe supression in small Josephson 209-211
cryogenic applications junctions
C.H. Downey 48 -— 50 R.L. Peterson 132-135
Mechanical characteristics of NdFeB Cryogenic grinding technology for
magnets at low temperature traditional Chinese herbal medicine
P. Vedrine, P. Tixador, Y. Brunet, J.C. Simo Li, Shuangyan Ge, Zhongping April (pp 217 — 324)
Bobo, A. Fevrier and A. Leriche 51-53 Huang, Qun Wang, Haoping Zhao and
Low temperature calorimetry using an Huaiyu Pan 136-137 Low temperature mechanical and thermal
optical heating method Reliable low-temperature NMR cell for properties of liquid crystal polymers
P. Gutsmiedl, Chr. Probst and K. Andres pressure studies D. Evans and J.T. Morgan 220-222
54-57 N.S. Sullivan, C.M. Edwards and D. Microscopic aspects of solute — solvent
Simple and inexpensive cryogenic Zhou 138-139 interaction in doped polymer systems
bolometers investigated via hole burning
G. Gallinaro, F. Gatti and S. Terreni spectroscopy
58-60 W. Richter, S. Reul and D. Haarer
New °He/“He refrigerator 223 — 227
G. Dall’Oglio, L. Pizzo, L. Piccirillo and March (pp 145 — 216) Thermal conductivity of modified epoxy
L. Martinis 61 —63 resins with different cross-link densities
Growth of vapour bubbles from artificial Numerical model for cooling a gravitational at low temperatures
nucleation sites wave detector below 1 K M. Jackel, M. Miller, A. Licea Claverie
R. Rammig and R. Weiss 64-69 M. Bassan, E. Coccia, N. Menci and |. and K.F. Arndt 22—8 23 0
Modena 147 — 152 Fatigue behaviour of polymers
Effect of primary coil size on eddy current G. Hartwig and S. Knaak 231 — 233
February (pp 73 — 144) decay resistivity measurements Fracture energy of polymers at low
K.T. Hartwig, C.Y. Hua and L.C temperatures
He Il flowmetering McDonald 153-158 T. Saatkamp and G. Hartwig 234-237
S.W. Van Sciver, D.S. Holmes, X. Deformation properties of indium-based Thermal conductivity of fibre composites
Huang and J.G. Weisend II 75-86 solders at 294 and 77 K at low temperatures
Realization of the lambda transition M. Plétner, B. Donat and A. Benke P.G. Klemens 238 — 240
temperature of liquid “He 159-162 Thermal conductivity of filled epoxy
Naihao Song, C.S. Hong, Yuzhu Mao, Vibration test cryostat composites
Peng Lin, Qinggeng Zhang and Liang R. Schlegelmilch 163 — 165 E.E. Ustjushanin 241 — 243
Zhang 87-93 Magnetocaloric effect in HoCo2 compound Thermal expansion of carbon fibre
Plantinum NMR thermometry in high S.A. Nikitin and A.M. Tishin 166 — 167 composites with thermoplastic matrices
magnetic fields Calorimetry by means of the relaxation G. Schwarz, F. Krahn and G. Hartwig
D. Candela and D.R. McAllaster 94-98 and dual-slope methods below 1 K: 244 — 247
Cryogenics 1991 Vol 31 December 1073
Index
Fatigue properties of unidirectional carbon Temperature dependent stability and Achievement of high current density in
fibre composites at cryogenic protection parameters in an adiabatic Nb — Ti superconducting multifilamentary
temperatures superconducting magnet wires by introducing designed artificial
K. Pannkoke and H.-J. Wagner J.N. Brown IV and Y. lwasa 341 — 347 pins
248 — 251 Breakdown of superconductivity in a zinc K. Yamafuji, N. Harada, Y. Mawatari, K.
Cryogenic mechanical response of carbon whisker with controllable quasiparticle Funaki, T. Matsushita, K. Matsumoto,
fibre reinforced plastics with flooding O. Miura and Y. Tanaka 431 —438
thermoplastic matrices to quasi-static X. Yang and R. Tidecks 348 —- 353 Preparation of 110 K BiPbSrCaCuO thin
loads Hysteresis losses in hollow films by d.c. magnetron sputtering and
K. Ahiborn 252 — 256 superconducting filaments and in their transport properties
Durability of carbon fibre reinforced multifilament systems Y.H. Wang, L. Li, Y.Z. Zhang, Y.Y. Zhao
plastics with thermoplastic matrices J.A. Eikelboom and L.J.M. van de and P. Xu 439-443
under cyclic mechanical and cyclic Klundert 354 — 362 Critical energy of thermally insulated
thermal loads at cryogenic temperatures Apparatus for calorimetric measurement of composite superconductors
K. Ahiborn 257 — 260 a.c. losses in superconductors L. Malinowski 444 —- 449
Three-dimensional fabric reinforced J.A. Eikelboom 363 — 365 Investigations and developments in the
plastics for cryogenic use Patterning of high T, films for critical field of superconductive turbogenerators
Y. twasaki, J. Yasuda, T. Hirokawa, K current measurements 1.A. Glebov and L.I. Chubraeva
Noma, S. Nishijima and T. Okada W.K. Schomburg, M. Heidinger, G 450-452
261 — 264 Nother, J. Reiner, V. Windte, W. New silver powders with large surface
Damage in carbon fibre reinforced epoxy Schauer and K. Kadel 366 — 368 area as heat exchanger materials
after thermal cycling and T-fatigue SQUID magnetometer designed for high T. W. Itoh, A. Sawada, A. Shinozaki and
loading superconductors Y. Inada 453-455
H. Eggers, W. Hartung and S. Knaak M. Kohli and J.P. Harrison 369 —- 372 Sealing performance of gaskets and
265 — 268 Direct observation of magnetic flux flanges against superfluid helium
Boundary layer induced modification of inhomogeneity in the vicinity of high H. Ishimaru and H. Yoshiki 456 — 458
thermal and mechanical properties of temperature superconductors Experimental model of the TG-5000 flux
epoxy resin composites A.l. Belyaeva, S.V. Vojtsenya and V.P. pump
M. Jackel and W. Scheibner 269 — 272 Yuriyev 373-378 V.V. Vasil’ev, ,V.N. Isaykin, O.D.
Radiation damage of organic composite Intergranular flux creep in c-axis aligned Konzyuba, E.B. Klimova, V.G.
material for fusion magnet ceramic RBa2Cu30, (R = Y, Dy and Ho) Kozorezov, V.A. Kulagin, A.A. Markov,
S. Nishijima, T. Okada, T. Hirokawa, J N. Nakamura and M. Shimotomai V. Ya. Pakhomov, A.N. Romanov, B.A.
Yasuda and Y. lwasaki 273 —-2 76 379-383 Serebryakov, N.A. Sysoev and A.A.
Insulation irradiation test programme for Behaviour of quasi-optical dielectric Forostenko 459 — 460
the Compact Ignition Tokamak resonator with high 7. superconductors
T.J. McManamy, G. Kanemoto and P in the temperature range 10 —-3 00 K
Snook 277 — 281 N.T. Cherpak and A.Ya. Kirichenko
Use of resin composites for cryogenic 384 — 387
July (pp 485 — 692)
tankage Superconductivity of Au —Sn eutectic
M.T. Callaghan 282 — 287 solder
Superconductor stability ‘90: a review
Design of support strap with advanced D. Dummer, P. Andersen and W. L. Dresner 489 —-498
composite for cryogenic application Weyhmann 388 — 389
Stabilization, protection and current
T. Hirokawa, J. Yasuda, Y. lwasaki, K Reduced sensitivity of Nb3Sn epoxy-
density: some general observations and
Noma, S. Nishijima and T. Okada impregnated cable to transverse stress speculations
288 — 291 B. Jakob, G. Pasztor, M. Bona and A.
M.N. Wilson 499 — 503
Evaluation of structural integrity of Asner 390 — 391
Probability of premature quenches due to
superconducting magnet coils Boiling heat transfer to liquid helium from
conductor motion in superconducting
G.W. Knight and D. Evans 292 — 297 surface with pin-fins
windings
Basic material data and structural analysis H. Ogata, H. Kuwahara, H. Noguchi and
T. Takao, O. Tsukamoto and S. Honjo
of fibre composite components for T. Nakagawa 392 —393
504 — 509
space application Design criteria for stability in cable-in-
H. Bansemir and O. Haider 298 — 306
conduit conductors
Research and development of insulating
materials for large helical device June (pp 397 — 484) L. Bottura, N. Mitchell and J.V.
Minervini 510-515
T. Okada, S. Nishijima, K. Takahata and
Simulation of tensile strength of Stability of superconductors cooled
J. Yamamoto 307 —311
anisotropic fibre-reinforced composites internally by He Il heat transfer
influence of test geometry on tensile
at low temperature S.W. Van Sciver 516-520
strength of fibre reinforced plastics at
H.H. Abdelmohsen 399 — 404 Stabilization of Cu — Ni/Nb — Ti
cryogenic temperatures
Thermal conductivities of magnetic superconductors by MgO powder
E. Tschegg, K. Humer and H.W. Weber
intermetallic compounds for cryogenic S. Yokoyama, S. Yamamoto, S.
312-318
regenerator Nakamura and T. Yamada 521 — 523
Fabrication techniques for thermoplastic
M. Ogawa, R. Li and T. Hashimoto Stability of superconducting magnetic
composites
405-410 shield
R. Weiss 319-322
Research on chill-down time of liquid K. Seo, S. Nishijima, T. Okada and K.
hydrogen pump Katagiri 524 —- 527
May (pp 325 — 396) T.-Y. Lin 411-416 Influence of copper to superconductor
Possible design for a thin wire resistance ratio on stability of superconductors
Measurement device with cold oscillator thermometer with isotropic N. Amemiya and O. Tsukamoto
for measuring vapour content in helium magnetoresistance 528 — 532
two-phase flow K. Nara, H. Kato and M. Okaji Dynamic stability of superconductors
H. Katheder and M. Siisser 327 — 329 417-420 cooled by pool boiling
Flow patterns of two-phase helium in Versatile system for point contact T. Ito and H. Kubota 533 — 537
horizontal channels conductance spectroscopy Stability measurements on the 50 kA
A.\. Alexeyev, Yu. P. Filippov and |.S H. Srikanth and A.K. Raychaudhuri SMES conductor
Mamedov 330 — 337 421-424 J.M. Pfotenhauer 538 — 542
Flight performance of a rocket-borne “He Instrumentation for highly sensitive Stability measurements of three-
refrigerator measurement of magnetocaloric effect: component Nb — Ti superconducting
L. Duband, D. Alsop, A. Lange, S. application to high T,. superconductors wires
Hayata, T. Matsumoto and S. Sato H. Kato, K. Nara and M. Okaji Y. Tanaka, K. Yamada, T. Sano and K.
338 — 340 425-430 Doi 543 —- 546
1074 Cryogenics 1991 Vol 31 December
Index
Numerical analysis of thermal stability of Experimental results of the Nb3Sn demo 3He/*He mixing chamber for an ultralow
an immersion-cooled, pancake type poloidal coil (DPC-EX) temperature gravitational wave antenna
superconducting coil Y. Takahashi, K. Yoshida, T. Ando, T. E. Coccia and |. Modena 712-714
S. Okada, J.-K. Kim, T. Aihara and K. Hiyama, H. Tsuji, M. Nishi, E. Tada, K. Minimum specimen size for composite
Kuroda 547-550 Okuno, K. Koizumi, H. Nakajima, T. testing at low temperature
Influence of mass flow rate and hydraulic Kato, M. Sugimoto, T. Isono, K. H.H. Abdelmohsen 715-719
perimeter on the transient stability Kawano, Y. Kamiyauchi, J. Yoshida, H. High T, superconductor voltage — current
margin of a forced flow cooled Ishida, E. Kawagoe, M. Konno and S simulator and the pulse method of
superconductor Shimamoto 640 — 644 measuring critical current
K. Agatsuma 551 — 556 Transient pressure increase in cable-in- L.F. Goodrich 720-727
Theory of thermal hydraulic quenchback in conduit conductor exposed to pulsed Magnetic separation of superconductors
cable-in-conduit superconductors magnetic fields F.J. Blunt and A.M. Campbell 728 — 731
L. Dresner 557 — 561 V.i. Babitch, V.V. Churbanov, C. Quantitative determination of percentage
Quench protection of superconducting Schmidt and H. Tateishi 645 —- 650 superconductor in a new compound
magnet using ZnO arrester Stability and a.c. loss of Nb—Ti wire for A.M. Campbell, F.J. Blunt, J.D. Johnson
T. Ishigohka and Y. Kushiro 562 — 565 low excitation superconducting and P.A. Freeman 732 — 737
Estimation of maximum voltage of generator Influence of copper location on stability of
superconducting magnet systems during K. Ohmatsu, M. Nagata and K. composites made of superconducting
a quench Takahashi 651 —654 filaments in a highly resistive matrix
T. Tominaka, N. Hara and K. Kuroda Tests on a 30 kVA class superconducting P. Maccioni and B. Turck 738-748
566 — 569 transformer Study on the intrinsic thermal stability of
Compact 17 T epoxy-impregnated magnet E.S. Yoneda, |. Tashiro, M. Moroshi and anisotropic thin film superconductors
without bore tube D. Ito 655-659 with a line heat source
M. Urata, H. Maeda, N. Aoki and G. Development of superconductors for a R.C. Chen and H.S. Chu 749-755
Uchiyama 570-574 70 MW superconducting generator Cryoelectrophoresis of superconducting
Stability issues in high performance Y. Matsunobu, K. Yamaguchi, N. Maki, YBa2Cu307-, in liquid nitrogen
superconducting magnets N. Tada, Y. Yagi and R. Shiobara R. Eggenhoffner 756 — 759
Y. lwasa 575-579 660 — 663 Electrical contact to high T,
Stability of high current density magnets Stability tests against thermal disturbances superconductor
with narrow liquid helium channel on rotating superconducting field Yue Sun and Hongchuan Yang
cooling windings 760 — 762
Yan Luguang, Yi Changlian and Qin Jie T. Onishi, K. Kaiho, N. Higuchi, |. Ishii, Calibration constant calculations for
580 — 584 H. Nomura, H. Tateishi, K. Arai, K. magnetic susceptibility measurements
Statistical study on stability and quench Satoh and M. Inukai 664 —- 667 A.F. Khoder and M. Couach 763-765
protection of pool cooled Normal zone propagating characteristics
superconducting magnets and stability criterion of the September (pp 773 — 852)
O. Tsukamoto, N. Amemiya, H. Kagami superconducting field windings for a test
and S. Yamamura 585 — 589 rotor Development of an SMA electrode to
Static and dynamic characteristics of K. Kaiho, H. Nomura, H. Higuchi, |. Ishii, match type 316LN base metal cryogenic
Nb3Ge layers for rapid superconducting H. Tateishi, K. Arai, T. Onishi, M. properties
power switches Kumagai and T. Imura 668 —- 673 T.A. Siewert and C.N. McCowan
|. Hlasnik, J. Kokavec, K. Fréhlich and Temperature pulse evolution in a three 775-779
L. Jansak 590-593 dimensional medium with temperature Correlation of mechanical properties with
Instability in kiloamp class a.c. dependent heat conductivity: application metallurgical structure for 18Ni 200
superconducting cables to high temperature superconductor grade maraging steel at room and
K. Funaki, M. Nakashima, M. lwakuma, composites cryogenic temperatures
M. Takeo and K. Yamafuji 594 —- 597 A.A. Akhmetov, V.A. Altov, 0.V. J.A. Wagner 780 — 785
Quench characteristics of a.c. Filatova and V.V. Sytchev 674-675 Work and heat flows in a pulse-tube
superconducting coils Preparation of aligned high T, refrigerator
S. Akita, H. Kasahara and S. Torii superconducting composite tape by laser M. Kasuya, M. Nakatsu, Q. Geng, J.
598 — 600 deposition process on metallic substrate Yuyama and E. Goto 786 — 790
Numerical analysis of a.c. losses in N. Sadakata, K. Onabe, Y. lijima, N. Regenerator effectiveness of a two-stage
superconductors Futaki, O, Kohno and Y. Ikeno Gifford - McMahon cryogenerator:
H. Hashizume, T. Sugiura, K. Miya, Y. 676-679 experimental results
Ando, S. Akita, S. Torii, Y. Kubota and Effects of transverse heat transfer on A. Baldini 791-795
T. Ogasawara 601 — 606 normal zone propagation in metal-clad Carbon and thick film chip resistors as
Frequency dependence of quench current high temperature superconductor coil thermometers for heat capacity
of a.c. superconducting winding for tape measurements below 1 K
linear induction motor M.K. Chyu and C.E. Oberly 680 —-6 86 M.L. Siqueira, R.J. Viana and R.E. Rapp
N. Amemiya, T. Sugita, T. Takao, O. Transport current properties of silver 796 — 800
Tsukamoto, Y. Tanaka, K. Oishi, H. sheathed BiPbSrCaCuO wire and coil Insert for regulating temperatures between
Shimizu, S. Sato, Y. Yoneyama and S. K. Sato, T. Hikata, M. Ueyama, H 2 and 1000 K in a liquid helium dewar:
Yatabe 607-611 Mukai, N. Shibuta, T. Kato and T description and cryogenic analysis
A.c. stability and a.c. loss in composite Masuda 687 — 689 A. Barlet, J.C. Genna and P. Lethuillier
superconductors Effect of light irradiation on S—N 801-805
L.J.M. van de Klundert 612 —617 transition in BSCCO superconductor Co-axial current lead for 14 T split
Transient heat transfer to a closed volume N. Shimizu, T. Yoshida and K. Horii solenoid magnet
of He | and its influence on 690 —- 692 K. Maehata, M. Wake and H.
superconductor stability Hirabayashi 806 —- 810
C. Schmidt 618 —623 August (pp 693 — 772) EuSe as magneto-optical active coating for
Heat transport in insulation of cables use with the high resolution Faraday
cooled by superfluid helium Friction and wear of polymeric materials at effect
C. Meuris 624-628 293, 77 and 4.2 K Th. Schuster, M.R. Koblischka, B.
Stability and protection of Tore Supra P.C. Michael, E. Rabinowicz and Y Ludescher, N. Moser and H. Kronmiller
superconducting coils Iwasa 695 — 704 811-816
B. Turck 629-633 Thermal counterflow in a diverging Normal zone propagation in adiabatic
Stability tests on R&D superconductors for channel: a study of radial heat transfer superconducting magnets. Part |: normal
the Large Helical Device in He Il zone propagation velocity in
T. Mizo, J. Yamamoto, K. Takahata, N. J.F. Kafkalidis and J.T. Tough superconducting composites
Yanagi and O. Motojima 63—4 63 9 705-711 S.P. Zhao and Y. |lwasa 817 —-8 25
Cryogenics 1991 Vol 31 December 1075
Index
Influence of loading — unloading treatment Characterization of some chip resistors at Evaluation of CMOS timer integrated
at room temperature on superconducting low temperatures circuits for cryogenic use
properties of Nb3Sn superconducting A. Briggs 932-935 T. Haruyama and R.K. Kirschman
composite Review of stability in high temperature 1055 — 1064
W. Zhang, S. Ochiai and K. Osamura superconductors with emphasis on flux Behaviour of power MOSFETs at cryogenic
826 — 832 jumping temperatures
influence of nickel substitution on flux S.L. Wipf 936-948 R. Karunanithi, A.K. Raychaudhuri, Z.
pinning and critical currents in History effect of critical current density Sziics and G.V. Shivashankar
YBa2Cu307-» and weak links in superconducting 1065 — 1069
G.K. Bichile, D.G. Kuberkar, K.M BiPbSrCaCuO tape wires Measurements of the viscosity of
Jadhav, S.S. Shah and R.G. Kulkarni T. Matsushita, E.S. Otabe, B. Ni, T. compressed liquid air at temperatures
833 — 838 Hikata and K. Sato 949-953 between 70 and 130 K
Regenerator performance with sinusoidal Influence of thermal cycling on critical D.E. Diller, A.S. Aragon and A.
flow current of superconducting silver- Laesecke 1070-1072
D.E. Daney 839 -—8 41 sheathed high T, oxide wires
S. Ochiai, K. Hayashi and K. Osamura
October (pp 853 — 924) 954 - 961
Non-linear thermal relaxation waves in
Regenerator performance with noble gas high T,. superconductors carrying current Keywords
T.V. Bandos 962-968
muxtures
D.E. Daney 854 — 861 Frictional heating of magnet structural
Thermodynamic optimization of materials at cryogenic temperatures Alloys
A. lwabuchi and K. Komuro 969 - 974 Electrodes
regenerators
S.K. Das and R.K. Sahoo 862 — 868 Off-axis sputtered Y;Ba2Cu307-, films on Welds 775-779
Rhodium — iron resistance thermometer NdGaO; Calorimetry
T. Scherer, R. Herwig, P. Marienhoff, M. Measuring methods
with fused-silica coil frame
O. Tamura and H. Sakurai 869 —-8 73 Neuhaus, A. Vogt and W. Jutzi High T. superconductors 168 173
Low temperature resistance of p-InSb(Mn) 975-978 Superconductors
S.A. Obukhov, B.S. Neganov, Yu.F Heat transfer crisis during liquid nitrogen A.c. losses 363 — 365
Kiselev, A.N. Chernikov, V.S. Vekshina, cooling of high temperature Thermometry
N.1. Pepik and A.N. Popkov 874-877 superconductor Measuring techniques 54 — 57
Mechanical properties and fracture Yu. A. Kirichenko, S.M. Kozlov, K.V. Carbon fibres
behaviour of polyimide (SINTIMID) at Rusanov and E.G. Tyurina 979 —-9 84 Epoxy resins
cryogenic temperatures Force-cooled current leads for the force- Mechanical properties 265 — 268
E. Tschegg, K. Humer and H.W. Weber cooled superconducting magnets of the Thermoplastics
878 — 883 Nuclotron Low temperature studies 257 — 260
New technique for measuring the dynamic V.D. Bartenev and Yu. A. Shishov Mechanical properties 252 — 256
Young’s modulus between 295 and 6 K 985 —-9 87 Ceramic oxides
J. Zhang, A. Nyilas and B. Obst High T. superconductors for SQUID Flux creep
884 - 889 detection coils High T. superconductivity 379 — 383
Distortion of liquid helium surface in R.B. Stephens and R.L. Fagaly High T. superconductivity
inhomogeneous magnetic field 988 —- 992 Critical currents 954 —- 961
J. Frost, M.J. Lea and P. Fozooni Performance of all-metal demountable Superconductivity
890 —-8 91 cryogenic seals at superfluid helium Critical current density 949 — 953
Problems of practical use of temperatures Ceramics
thermoacoustics under liquid helium L.J. Salerno, A.L. Spivak and P. Kittel Heat transfer
storage conditions 993-995 Pool boiling 979 —-9 84
A.G. Kuzmina and S.P. Gorbachev Chip resistors
892-895 December (pp 1005 — 1084) Thermometry
Solubility of CFCl3, ,CHCl3, CCl4 and Magnetoresistance 932 —- 935
C2HCls in liquid nitrogen at 77.4 K Effectiveness of corrugated surfaces in Composites
B Dabrowska 896 - 899 limiting the rate of evaporation of Carbon fibres
Fabrication of Bi-based oxide cryogenic liquids Thermal properties 244 — 247
superconductors by YAG laser |. Kececioglu 1008 — 1019 Fatigue 248 — 251
irradiation Application of radio frequency method to Epoxy resins
M. Yuyama, H. Wada, K Itoh and T measurements in cryogenics Low temperature studies 282 — 287
Kuroda 900 — 905 A.|. Alexeyev, Yu.P. Filippov, |.S. Thermal conductivity 241 — 243
Effect of epoxy debonding and cracking on Mamedov and S.V. Romanov Fibres
Stability of superconducting composites 1020-1029 Space cryogenics 298 —- 306
V.1. Dotsenko and |.F. Kislyak 906 —-912 Arcsecond grating drive mechanism for Mechanical properties
Intragrain critical current density of operation at 4 K Epoxy resins 399-404, 715-719
superconducting compounds of the type C.H. Downey, J.R. Houck, M.J. Physical properties
(Pr,¥ 1 ~.)BazCu307_, Kubitschek and R.W. Tarde Design applications 288 — 291
L.S. Vaidhyanathan and G. Rangarajan 1030 — 1037 Polymers
913-917 Thermodynamic analysis of processes in Materials characterization 7-15
Novel large volume horizontal cryostat refrigerators using superfluid helium (He Radiation damage
D.G. Blair, P.J. Turner, J. Devlin, F.J ll) by means of T—q diagram Fusion magnets 273 —- 276
van Kann, M.A. Brennan and C. Shusen V.U. Sidyganov, E.V. Ametistov and Superconductivity
918-920 P.M. Kupchikhin 1038 — 1043 Epoxy resin 906-912
Millikelvin heater using a light emitting Theoretical analysis and performance Superconductor stability
diode and fibre optics investigation of Stirling cycle Copper 738-748
P.B. Chilson, J.C. Clark and G.G. lhas regenerators Superconductors
921-923 M.D. Atrey, S.L. Bapat and K.G. High 7, superconductivity 674 —675
Narayankhedkar 1044 —- 1052 Nb3Sn 826 —-8 32
November (pp 925 — 1004) Simple technique for increasing the Stability 192-203
conductivity of copper for current lead Thermal conductivity
Effect of channel geometry on heat conductors Fibres 238 — 240
transfer in He Il chamber B.V. Elkonin and J.S. Sokolowski Thermoplastics
H. Tsuruga and H. Kobayashi 927 — 931 1053 — 1054 Fabrication 319 —-322
1076 Cryogenics 1991 Vol 31 December
Copper Flux creep Thermoacoustics
Superconductor stability Ceramic oxides Pressure vessels 892 — 895
Composites 738 — 748 High T. superconductivity 379 — 383 Thermodynamics
Critical current density Flux penetration Refrigerators 1038-1043
Superconductivity Faraday effect Thermometry
Ceramic oxides 949 —- 953 High T, superconductors 811 — 816 Temperature regulation 801 — 805
Critical currents Flux pinning High T. superconductivity
Ceramic oxides Magnetization behaviour Ceramic oxides
Granular superconductors 105 -— 109 Critical currents 178— 182 Critical currents 954 — 961
High T, superconductivity Superconductivity Critical currents
Ceramic oxides 954-961 Multifilamentary wires 431 — 438 SQUIDs 913-917
SQUIDs 913-917 Superconductors Measuring techniques
High T, superconductors Critical currents 833 — 838 Epitaxial ferrogarnet film 373 —378
Magnetometers 119-127 Force-cooling SQUIDs
Measuring methods 720-727 Superconducting magnets Low temperature electronics
Magnetization behaviour Current leads 985 — 987 988-992
Flux pinning 178-182 Fracture behaviour Superconducting cables
Superconductivity Polymers Turbogenerators 450 —- 455
Josephson junctions 132-135 Mechanical properties 878 — 883 Superconductors
Zinc 348 — 353 Friction Critical currents 687 — 689
Superconductors Superconducting magnets Heat transfer 680 —- 686
Flux pinning 833 — 838 Quench 969 —-974 S—N transition 690 —- 692
High T. superconductivity 687 — 689 Gravity wave antennas Starting compounds 33 — 40
Thin films Cryostats Thin films
High T, superconductivity 366 — 368 Helium 918-922 BiPbSrCaCuO 439-449
Critical energies Heat capacity High T. superconductors
Superconductors Thermal properties Calorimetry
Superconductor stability 444 —449 Glass-ceramic 102-104 Measuring methods 168-173
Cryocoolers Thermometry Critical currents
Regenerators Resistors 796 — 800 Measuring methods 720 — 727
Stirling cycle 1044 — 1052 Heat exchangers Electrical contacts
Cryogenerators Regenerators Resistivities 760 — 762
Refrigerators Sinusoidal flow 839 — 841 Faraday effect
Gifford - McMahon cycle 791 — 795 Heat transfer Flux penetration 811-816
Cryogens Helium Magnetic materials
Cryomedicine Boiling surfaces 392 — 393 Magnetic separation 728 — 731
Physical properties 136 — 137 Gorter — Mellink model 705-711 Magnetometers
Flow rate Superfluidity 927 — 931 Critical currents 119-127
Measuring methods 1020-1029 Nitrogen Materials characterization
Cryomedicine Hydrogen 64-69 Thermal cycling 209-211
Cryogens Pool boiling Normal zone propagation
Physical properties 136 — 137 Ceramics 979 —-984 Thermal stability 962 —- 968
Cryostats Refrigeration Hydrogen
Helium Pulse-tube refrigerators 786 — 790 Heat transfer
Gravity wave antennas 918 — 922 Silver powders Nitrogen 64-69
Mathematical models Ultralow temperatures 453 — 455 Hydrogen
Refrigerators 147 — 152 Superconductors Rocket engines 411-416
Tunneling High T, superconductivity Instrumentation
Spectroscopy 421-424 680 — 686 Nuclear magnetic resonance
Strain gauges Laser ablation 676-679 138-139
Young’s modulus 884 — 889 Magnetic stability 618 —623 Hysteresis
Vibration testing Stability 547 — 550 Superconductors
Space cryogenics 163-165 Superfluid helium 624 —628 Hollow filaments 356 — 362
Current leads Helium Instrumentation
Magnets Cryostats Hydrogen
Solenoids 806 — 810 Gravity wave antennas 918 — 922 Nuclear magnetic resonance 138 — 139
Residual resistance ratio Gravitational waves Low temperature electronics
Annealing 1053 — 1054 Dilution refrigerators 712—714 Amplifiers 48 — 50
Superconducting magnets Heat transfer CMOS 1055 - 1064
Force-cooling 985 — 987 Boiling surfaces 392 — 393 Thick-film resistors 58 — 60
Epoxy resins Gorter — Mellink model 705-711 Magnetocaloric effect
Carbon fibres Superfluidity 927 —931 High T, superconductivity 425 — 430
Mechanical properties 265 — 268 Leaks Measuring techniques
Composites Seals 993-995 High 7, superconductors 384 — 387
Low temperature studies 282 — 287 Magnetic fields Insulation
Mechanical properties 399 — 404, Surface studies 890 — 891 Fibre-reinforced plastics
715-719 Measuring methods Mechanical properties 312-318
Thermal conductivity 241 — 243 Flow pattern map 330 — 337 Materials studies
Thermal conductivity Measuring instruments Design application 307 — 311
Low temperature studies 228 — 230 Two-phase flow 327 — 329 Tokamak
Thermal properties Measuring methods Radiation damage 277 — 281
Mechanical properties 269 — 272 Flowmeters 75 — 86 Josephson junctions
Faraday effect Refrigeration Superconductivity
High T. superconductors Cryopump 61-63 Critical currents 132-135
Flux penetration 811-816 Regenerators LEDs
Fibre-reinforced plastics Noble gases 854 —- 861 Optical fibres
Insulation Space cryogenics Thermal conductivity 921 —923
Mechanical properties 312-318 Refrigerators 338 — 340 Leaks
Thermal properties Superfluidity Helium
Mechanical properties 261 — 264 Flanges 456 — 458 Seals 993-995
Cryogenics 1991 Vol 31 December 1077
Index
Low temperature electronics Magnetic properties Measuring methods
High T.. superconductivity Calibration 763 —-7 70 Resistivity 153 — 158
SQUIDs 988 —-9 92 Measuring instruments Polymers
Instrumentation Helium Low temperature studies 695 — 704
Amplifiers 48 — 50 Two-phase flow 327 —329 Superconductors
CMOS 1055 — 1064 Measuring methods Superconductor stability 21 — 32
Thick-film resistors 58 — 60 Calorimetry Thermal conductivity
MOSFETs High T. superconductors 168 — 173 Materials characterization 3-6
Switching 1065 — 1059 Cryogens Polymers
Low temperature studies Flow rate 1020-1029 Composites
Epoxy resins Helium Materials characterization 7-15
Thermal conductivity 228 — 230 Flowmeters 75 — 86 Fracture behaviour
Polymers High T, superconductors Mechanical properties 878 — 883
Fatigue 231 — 233 Critical currents 720-727 Fracture energy
Physical properties 695 — 704 Physical properties Low temperature studies 234 — 237
Magnetic fields Resistivity 153-158 Low temperature studies
Helium Superconductors Fatigue 231 — 233
Surface studies 890 —-8 91 Efficiency 204 —- 208 Physical properties
Materials characterization Measuring techniques Low temperature studies 695 — 704
Thin films 41 —47 High T. superconductivity Spectroscopy
Physical properties Epitaxial ferrogarnet film 373-378 Photochemical hole burning 223 — 227
Mode! 128— 131 Instrumentation Thermal properties
Thermometers High 7, superconductors 384 — 387 Mechanical properties 220 — 222
Magnetoresistance 417 —-4 20 Superconductors Pool boiling
Platinum resistance thermometers Critical currents 174-177 Heat transfer
16-20 Viscosity Ceramics 979 — 984
Thermometry Liquid air 1070-1072 Superconductors
Platinum NMR 94-98 Mechanical properties Stability 533 — 537
Magnetic materials Carbon fibres Quench
High T,. superconductors Epoxy resins 265 — 268 Superconducting magnets
Magnetic separation 728 — 731 Composites Friction 969 —-974
Thermal conductivity Epoxy resins 399-404, 715-719 Superconductors
Regenerators 405 —-4 10 Epoxy resins A.c. losses 598 — 600
Magnetic properties Thermal properties 269 — 272 Numerical modelling 645 — 650
Mathematical models Fibre-reinforced plastics Refrigeration
Calibration 763 — 770 Insulation 312-218 Heat transfer
Magnetization Magnetization Pulse-tube refrigerators 786 — 790
Mechanical properties Superconducting cables 51-53 Refrigerators
Superconducting cables 51-53 Polymers Cryogenerators
Refrigerators Fracture behaviour 878 — 883 Gifford - McMahon cycle 791 — 795
Thermodynamics 99 — 101 Steel Magnetization
Magnetization behaviour Metallurgical characterization Thermodynamics 99-101
Critical currents 780-785 Mathematical models
Flux pinning 178 — 182 Superconductors Cryostats 147-152
Superconductors Superconducting magnets Space cryogenics
Transition temperature 732 — 737 292-297 Helium 338 — 340
Magnetocaloric effect Model Thermodynamics
Instrumentation Physical properties Helium 1038 — 1043
High T. superconductivity 425 — 430 Magnetic fields 128-131 Regenerators
Magnetic field Superconductors Cryocoolers
Magnetic entropy charge 166 — 167 Flux pump 459 — 460 Stirling cycle 1044-1052
Magnetometers Thermal properties Heat exchangers
High T. superconductors Corrugated surfaces 1008 —- 1019 Sinusoidal flow 839 — 841
Critical currents 119 — 127 Multifilamentary wires Noble gases
SQUIDs Superconducting magnets Helium 854 — 861
High T. superconductivity 369 — 372 Proximity effects 183-191 Thermal conductivity
Magnetoresistance Superconductivity Magnetic materials 405-410
Chip resistors Flux pinning 431 — 438 Thermodynamics
Thermometry 932 —935 Nb — Ti Optimization 862 — 868
Thermometry Superconducting magnets Rhodium — iron
Thermoresistors 874 —-8 77 Superconductor stability 341 — 347 Thermometry
Magnets Nitrogen Resistance thermometer 869 — 873
Current leads Heat transfer SQUIDs
Solenoids 806 —-8 10 Hydrogen 64-69 High T. superconductivity
Superconductors Noble gases Low temperature electronics 988 - 992
Magnetic stability 580 - 584 Regenerators Seals
Materials characterization Helium 854 — 861 Helium
Composites Normal zone propagation Leaks 993-995
Polymers 7-15 High T. superconductors Sinusoidal flow
High T, superconductors Thermal stability 962 —- 968 Heat exchangers
Thermal cycling 209 — 211 Optical fibres Regenerators 839 — 841
Magnetic fields LEDs Solders
Thin films 41 —47 Thermal conductivity 921 —923 Materials characterization
Solders Physical properties Indium 159-162
Indium 159 — 162 Composites Solubility
Thermal conductivity Design applications 288 — 291 Liquid nitrogen
Physical properties 3-6 Cryomedicine Halogenhydrocarbons 896 — 899
Mathematical models Cryogens 136 — 137 Space cryogenics
Cryostats Magnetic fields Grating drive mechanism
Refrigerators 147 — 152 Model 128-131 Infrared spectograph 1030 — 1037
1078 Cryogenics 1991 Vol 31 December
Refrigerators Stability 547 —- 550 Epoxy resins
Helium 338 — 340 Superfluid helium 624 —-628 Composites 241 — 243
Steel High T, superconductivity Low temperature studies 228 — 230
Mechanical properties Critical currents 687 — 689 Materials characterization
Metallurgical characterization 780 — 785 Flux stability 936 —-948 Physical properties 3-6
Stirling cycle S—N transition 690 —- 692 Optical fibres
Regenerators Starting compounds 33 —- 40 LEDs 921-923
Cryocoolers 1044 —- 1052 Hysteresis Regenerators
Superconducting cables Hollow filaments 356 — 362 Magnetic materials 405 —- 410
A.c. losses Magnetic stability Superconductivity
Stability 594 — 597 A.c. losses 612-617, 651-654 Phase diagram 388 — 389
High T, superconductivity Forced flow cooling 551 — 556 Thermal properties
Turbogenerators 450 — 455 Generators 660 —- 663, 664 - 667 Corrugated surfaces
Mechanical properties Large Helical Device 634 — 639 Model 1008 — 1019
Magnetization 51-53 Magnetization behaviour Epoxy resins
Nb3Sn Transition temperature 732 — 737 Mechanical properties 269 — 272
Stress effects 390-391 Magnets Heat capacity
Superconducting magnets Magnetic stability 580 — 584 Glass-ceramic 102-104
Current leads Measuring methods Polymers
Force-cooling 985 — 987 Efficiency 204 —- 208 Mechanical properties 220 — 222
Multifilamentary wires Measuring techniques Thermal stability
Proximity effects 183-191 Critical currents 174-177 High 7, superconductors
Quench Mechanical properties Normal zone propagation 962 — 968
Friction 969-974 Superconducting magnets 292 — 297 Superconductors
Superconductor stability Model Thin films 749-755
Nb — Ti 341 — 347 Flux pump 459 — 460 Thermoacoustics
Superconductors Oxide superconductors Helium
Magnet stability 570-574 YAG lasers 900 —- 905 Pressure vessels 892 — 895
Magnetic stability 575-579 Physical properties Thermodynamics
Mechanical properties 292 — 297 Superconductor stability 21 — 32 Refrigerators
Quench protection 557 — 561, Pool boiling Helium 1038 — 1043
562-565, 566-569 Stability 533 — 537 Magnetization 99 —- 101
Stability 504 —- 509 Quench Regenerators
Composites A.c. losses 598 — 600 Optimization 862 — 868
Normal zone propagation 817 — 835 Numerical modelling 645 — 650 Thermometers
Superconducting oxides Stability Magnetic fields
Thin films Copper to superconductor ratio Magnetoresistance 417 —- 420
Cryoeiectrophoresis 756 — 759 528 — 532 Platinum resistance thermometers
Superconductivity Current density 499 — 503 16-20
Ceramic oxides Design criteria 510-515 Thermometry
Critical current density 949 —- 953 Generators 668 — 673 Calorimetry
Composites Magnetic shield 524 —-527 Measuring techniques 54 — 57
Epoxy resin 906-912 Quench energy 521-523, 543 Chip resistors
Critical currents Review 489 —- 498 Magnetoresistance 932 —- 935
Zinc 348 — 353 SMES 538 — 542 Heat capacity
Josephson junctions Superfluid helium 516 —520 Resistors 796 — 800
Critical currents 132-135 Superconducting magnets Helium
Multifilamentary wires Magnet stability 570-574 Temperature regulation 801 — 805
Flux pinning 431 — 438 Magnetic stability 575-579 Magnetic fields
Thermal conductivity Quench protection 557 — 561, Platinum NMR 94-98
Phase diagram 388 — 389 562-565, 566-569 Magnetoresistance
Superconductor stability Stability 504-509 Thermoresistors 874 — 877
Composites Superconducting switches Rhodium — iron
Copper 738-748 Magnetic stability 590-593 Resistance thermometers 869 — 873
Cooling Thermal stability Thin films
Stability analysis 110-118 Thin films 749-755 Critical currents
Superconducting magnets Tokamak High T, superconductivity 366 — 368
Nb —Ti 341 —347 Fusion 640 —- 644 High T, superconductivity
Superconductors YBCO BiPbSrCaCuO 439 —- 449
A.c. losses Thin films 975-978 Magnetic fields
Hysteresis 601 — 606 Superconducting magnets Materials characterization 41 — 47
Quench current 607 —- 617 Magnetic stability 585 — 589 Superconducting oxides
Calorimetry Tore Supra Cryoelectrophoresis 756 — 759
A.c. losses 363 —- 365 Magnetic stability 629 —-633 Superconductors
Composites Superfluidity Thermal stability 749 — 755
High T. superconductivity 674 —- 675 Helium YBCO 975-978
Nb3Sn 826 — 832 Flanges 456 —- 458 Tunneling
Stability 192-203 Heat transfer 927 — 931 Cryostats
Critical currents Temperature measurement Spectroscopy 421-424
Flux pinning 833 — 838 Helium 87 —93 YBCO
Critical energies Temperature measurement Superconductors
Superconductor stability 444 —- 449 Superfluidity Thin films 975-979
Heat transfer Helium 87-93 Zinc
High T, superconductivity 680 — 686 Thermal conductivity Superconductivity
Laser ablation 676 —-679 Composites Critical currents 348 — 353
Magnetic stability 618 —- 623 Fibres 238 — 240
Cryogenics 1991 Vol 31 December
Index
Authors Dotsenko, V.|I. 906-912 Inukai, M. 664 —- 667
Downey, C.H. 48-50, 1030-1037 isaykin, V.N. 459 - 460
Abdelmohsen, H.H. 399-404, 715 719 Dresner, L 489-498, 557-561 Ishida, H. 640 —- 644
Agatsuma, K 551 556 Duband, L. 338 — 340 Ishigohka, T. 562-565
Ahiborn, K 252-256, 257 260 Dubé, W.P. 3-6 Ishii, |. 664 —- 667, 668-673
Akhmetov, A 674 675 Dummer, D. 388 - 389 Ishimaru, H. 45-6 45 8
Akita, S 598 —-6 00, 601 606 Isono, T. 640 - 644
Alexeyev, A.| 330 — 337, 1020 1029 Edwards, C.M. 138-139 Ito, T. 533 — 537
Alford, N.McN 119 127 Eggenhoffner, R. 756-759 Itoh, K. 900 —- 905
Alsop, D 338 340 Eggers, H. 265 — 268 Itoh, W. 453-455
Altov, V 674 675 Egusa, S. 7-15 Ilwabuchi, A. 969-974
Amano, T 110 118 Eikelboom, J.A 356 — 362, 363-365 Iwakuma, M. 594-597
Amemiya, N 528 — 532, 585 589, Elkonin, B.V 1053 — 1054 Iwasa, Y. 174-177, 261 — 264,
607 617 Evans, D. 220-222, 292-297 341 —-347, 575-579, 695-704,
Ametistov, E.V 1038 1043 817-835
Anderson, P 388 389 Fagaly, R.L 988 - 992 Iwasaki, Y. 273-276, 288-291
Ando, T 640 644 Fevrier, A 51-53
Ando, Y 601 606 Filatova, O 674-675 Jackel, M. 269 — 272, 228-230
Andres, K 54-57 Filippov, Yu.P 330 —337, 1020-1029 Jadhav, K.M. 83—3 83 8
Aoki, N 570 574 Forostenko, A.A. 459 —-4 60 Jakob, B. 390 — 391
Aragon, A.S 1070 1072 Fozooni, P 890 - 891 JanSak, L. 59—0 59 3
Arai, K 664 —-6 67, 668 673 Freeman, P.A 732-737 Jie, Qin 58—0 58 4
Arndt, K.F 228 230 Freidberg, J.P 21-32 Johnson, J.D. 732-737
Asner, A 390 391 Frohlich, K. 590-593 Jones, H. 105-109
Atrey, M.D 1044 1052 Frost, J. 890 - 891 Jutzi, W 975-978
Funaki, K 431 438, 594-597
Babitch, V.I 645 650 Futaki, N. 676-679 Kadel, K. 36—6 36 8
Baldini, A 795 Kafkalidis, J.F. 705-711
Bandos, T.V 968 Gallinaro, G. 58-60 Kagami, H. 58—5-5 8 9
Bansemir, H 306 Gatti, F 58-60 Kaiho, K. 66—4-6 6 7, 668-673
Bapat, S.L 1052 Ge, Shuangyan 136 — 137 Kamafuji, K. 183-191
Barlet, A Geng, Q 786 — 790 Kamitani, A. 110-118
Bartenev, V.D Genna, J.C. 801 — 805 Kamiyauchi, Y. 640 - 644
Bassan, M Glebov 450-455 Kanemoto, G. 277-281
Belyaeva, A.| Goodrich, L.F. 720-727 Karman, T. 33-40
Benke, A Gorbachev, S.P 204 — 208, 892-895 Karunanithi, R. 1065 — 1069
Bernstein, G Goto, E 786 — 790 Kasahara, H. 59—8-6 0 0
Bichile, G.K Gough, C.E 119-127 Kasuya, M. 786 — 790
Blair, D.G Gupta, A.K 209-211 Katagiri, K. 524-527
Blunt, F.J Gutsmiedl, P 54-57 Katheder, H. 327-329
Bobo, J.C Kato, H. 16-20, 417-420, 425-430
Bona, M Haarer, D 223 — 227 Kato, T. 640 —- 644, 687 - 689
Bottura, L Haider, O 298 — 306 Kawagoe, E. 640 —- 644
Brennan, M.A Halasz, | 33-40 Kawano, K. 640 - 644
Briggs, A Hara, N. 183-191, 431 -438, 566 - 569 Kececioglu, |. 1008 — 1019
Brown IV, J.N Harrison, J.P. 369 — 372 Khare, N. 209-211
Brunet, Y Hartung, W. 265 — 268 Khoder, A.F. 763-770
Button, T.W Hartwig, G 231 — 233, 234-237, Kim, J.-K. 547-550
244 — 247 Kirichenko, A.Ya. 384 — 387
Churbanov, V.V Hartwig, K.T 153-158 Kirichenko, S.M. 979-984
Callaghan, M.T Haruyama, T 1055 — 1064 Kirschman, R.K 1055 — 1064
Campbell, A.M Hashimoto, T 405-410 Kirschner, |. 33-40
Candela, D Hashizume, H. 601 — 606 Kiselev, Yu.F. 874-877
Caplin, A.D Hayashi, K 954 - 961 Kisylak, |.F. 906 —-912
Cardwell, D.A Hayata, S. 338 — 340 Klemens, P.G. 238 — 240
Changlian, Yi Heidinger, M 366 — 368 Klimova, E.B. 459 - 460
Chen, Rong-Chang Herwig, R 975-978 Knaak,S. 231 — 233, 265-268
Chernikov, A.N Higuchi, H 668 - 673 Knight, G.W. 292 —297
Cherpak, N.T ‘Higuchi, N 664 — 667 Kobayashi, H. 927-931
Chilson, P.B Hikata, T 687-689, 949-953 Koblischka, M.R. 811-816
Chu, Hsin-Sen Hirabayashi, H. 806 —-8 10 Kohli, M. 369 — 372
Chubraeva, L.| Hirokawa, T 261 264, 273-276, Kohno, O. 676-679
Chyu, M 288 - 291 Koizumi, K. 640 - 644
Clark, J.C Hiyama, T 640 —- 644 Kokavec, J 590 —- 593
Coccia, E Hiasnik, | 590 - 593 Komuro, K. 969-974
Cockburn, J.W Holmes, D.S 75-86 Konno, M. 640 —- 644
Colclough, M.S Hong, C.S 87-93 Konzyuba, O.B. 459 - 460
Collocott, S.J Honjo, S 504 — 509 Kovacs, Gy. 33-40
Couach, M Horii, K 69-0 69 2 Kozlov, K.V. 979-984
Cowey, L Houck, J.R 1030 — 1037 Kozorezov, V.G. 459 - 460
Hua, C.Y 153-158 Krahn, F. 244 —- 247
Dabrowska, B Huang, X 75-86 Krikunov, A.A. 204 — 208
Dall’Oglio, G Huang, Zhongping 136 — 137 Kronmiller, H. 811-816
Daney, D.E 839 — 841, Humer, K 878-883 Kuberkar, D.G. 833 — 838
Das, S.K Kubitschek, M.J 1030 — 1037
Devlin, J ihas, G.G 921-923 Kubota, H. 533 — 537
Dietzfelbinger, S.H lijima, Y 676-679 Kubota, Y. 601 — 606
Diller, D.E Ikeno, Y 676-679 Kulagin, V.A. 459 - 460
Doi, K Imura, T 668 —-6 73 Kulkarni, R.G. 833 —-8 38
Donat, B Inada, Y 453-455 Kumagai, M. 668 —-6 73
1080 Cryogenics 1991 Vol 31 December
Index
Kupchikhin, P.M. 1038-1043 Nikitin, S.A. 166-167 Schomburg, W.K. 366 — 368
Kurisho, Y. 562-565 Nishi, M. 640-644 Schuster, Th. 811-816
Kuroda, K. 547-500, 566-569 Nishijima, S. 261-264, 273-276, Schwartz, J. 21-32
Kuroda, T. 900 —- 905 288 — 291, 307-311, 524-527 Schwarz, G. 244 -— 247
Kuwahara, H. 392-393 Noguchi, H. 392-393 Sekiya, S. 110-118
Kuzmina, A.G. 892-895 Noma, K. 261-264, 288-291 Seo, K. 524-527
Nomura, H. 664-667, 668-673 Serebryakov, B.A. 459 —- 460
Labov, S. 99-101 N6other, G. 366-368 Shah, S.S. 833 — 838
Laesecke, A. 1070-1072 Nyilas, A. 884-889 Shibuta, N. 687 —689
Lahderanta, E. 33-40 Shimamoto, S. 640 - 644
Laiho, R. 33-40 O'Connor, D.A. 119-127 Shimizu, H. 607 -617
Landis, D. 99-101 Oberly, C.E. 680-686 Shimizu, N. 690 - 692
Lange, A. 338-340 Obst, B. 884-889 Shimotami, M. 379-383
Laverty, J. 33-40 Obukhov, S.A. 874-877 Shinozaki, A. 453-455
Lawless, W.N. 41-47 Ochiai, S. 826-832, 954-961 Shiobara, R. 660 —- 663
Lea, M.J. 890-891 Ogasawara, T. 601-606 Shishov, Y.A. 98-5 98 7
Leppavuori, S. 33-40 Ogata, H. 392-393 Shivashankar, G.V. 1065 — 1069
Leriche, A. 51-53 Ogawa, M. 405-410 Shusen, C. 918-922
Lethuillier, P. 801-805 Ohara, A. 110-118 Sidyganov, V.U. 1038 — 1043
Li, L. 439-449 Ohmatsu, K. 651-654 Siewert, T.A.
Li, R. 405-410 Oishi, Y. 607-617 Silver, E.
Li, Shimo 136-137 Ojha, V.N. 209-211 Siqueira, M.L.
Liang, Zhang 87-93 Okada, S. 547-550 Slifka, A.J.
Licea Claverie, A. 228-230 Okada, T. 261 — 264, 273-276, Snook, P.
Lin, Peng 87-93 28—8 29 1, 307-311, 524-527 Sokolowski, J.S.
Lin, T.-Y. 411-416 Okaji, M. 16-20, 417-420, 425-430 Song, Naihao
Lubescher, B. 811-816 Okuno, K. 640-644 Sparks, L.L.
Luguang, Yan 580-584 Onabe, K. 676-679 Srikanth, H.
Onishi, T. 664-667, 668-673 Stephens, R.B.
Maccioni, P. 192-203, 738-748 Osamura, K. 826-832, 954-961 Sugimoto, M.
Madden, N. 99-101 Oshida, K. 640-644 Sugita, T.
Maeda, H. 570-574 Otabe, E.S. 949-953 Sugiura, T.
Maehata, K. 806 - 810 Sullivan, N.S. 138-139
Maki, N. 660-663 Pakhomov, V.Ya. 459-460 Sun, Yue 760 — 762
Malinowski, L. 444-449 Pan, Huaiyu 136-137 Sisser, M. 327-329
Mamedov, |.S. 330-337, 1020-1029 Pannkoke, K. 248-251 Sysoev, N.A. 459 - 460
Mao, Yuzhu 87-93 Pasztor, G. 390-391 Sytchev, V. 674-675
Marienhoff, P. 975-978 Pepik, N.I. 874-877 Szics, Z. 1065 — 1069
Markov, A.A. 459-460 Peterson, R.L. 132-135
Martinis, L. 61-63 Pfotenhauer, J. 538-542 Tateishi, H. 645 —- 650
Masuda, T. 687-689 Piccirillo, L. 61-63 Tada, E. 640 - 644
Mathu, F. 168-173 Pizzo, L. 61-63 Tada, N. 660 - 663
Matsumoto, K. 431-438 Plétner, M. 159-162 Takahashi, K. 651-654
Matsumoto, T. 338-340 Popkov, A.N. 874-877 Takahashi, Y. 640 — 644
Matsunobo, Y. 660-663 Porjesz, T. 33-40 Takahata, K. 307-311, 634-639
Matsushita, T. 431-438, 949-953 Postma, H. 168-173 Takao, T. 504-509, 607-617
Mawatari, Y. 183-191, 431-438 Probst, Chr. 54-57 Takeo, M. 594-597
McAllaster, D.R. 94-98 Tamura, O. 869 —- 873
McCowan, C.N. 775-779 Rabinowicz, E. 695-704 Tanak, Y. 183-191, 431-438,
McDonald, L.C. 153-158 Rammig, R. 64-69 543-546, 607-617
McManamy, T.J. 277-281 Rangarajan, G. 913-917 Tarde, R.W. 1030 — 1037
Meijer, H.C. 168-173 Rapp, R.E. 796-800 Tateishi, H. 664 - 667, 668-673
Menci, N. 147-152 Raychaudhuri, A.K421-—424,1065—1069 Terreni, S. 58-60
Meuris, C. 624-628 Reddy, G.S.N. 209-211 Tidecks, R. 348 — 353
Micheel, P.C. 695-704 Reiner, J. 366-368 Tishin, A.M. 166 — 167
Millet, |. 99-101 Reul, S. 223-227 Tixador, P. 51-53
Minervini, J.V. 510-515 Richards, M.G. 128-131 Tomar, V.S. 209-211
Mitchell, N. 510-515 Richards, P. 99-101 Tominaka, T. 566 —- 569
Mito, T. 634-639 Richter, W. 223-227 Torii, S. 598 — 600, 601 — 606
Miura, O. 431-438 Romanov, A.N. 459-460 Tough, J.T. 705-711
Miya, K. 601-606 Romanov, S.V. 1020-1029 Tschegg, E. 312-318, 878-883
Modena, |. 147-152, 712-714 Rusanov, E.G. 979-984 Tsuji, H. 640 - 644
Morgan, J.T. 220-222 Tsukamoto, O. 504-509, 528 — 532,
Moser, N. 811-816 Schmidt, C. 645 — 650 585-589, 607 -617
Motojima, O. 634-639 Saatkamp, T. 234-237 Tsuruga, H. 927-931
Muira, D. 183-191 Sadakata, N. 676-679 Turck, B. 192-203, 629-633,
Mukai, H. 687-689 Sahoo, R.K. 862 - 868 738-748
Miller, M. 228-230 Sakuri, H. 869-873 Turner, P.J. 918-922
Salerno, L.J. 993-995 Tyurina, E.G. 979-984
Nagata, M. 651-654 Sano, T. 543 - 546
Nakajima, H. 640-644 Sato, K. 687 —689, 949-953 Uchiyama, G. 570-574
Nakamura, N. 379-383 Sato, S. 338 — 340, 607-611 Ueyama, M. 687 —- 689
Nakamura, S. 521-523 Sato, K. 664-667 Urata, M. 570-574
Nakashima, M. 594-597 Satoh, K. 664-667 Ustjushanin, E.E. 241-243
Nakatsu, M. 786-790 Sawada, A. 453-455 Uusimaki, A. 33-40
Nara, K. 16-20, 417-420, 425-430 Schauer, W. 366 — 368
Narayankhedkar, K.G. 1044-1052 Scheibner, W. 269-272 Vaidhyanathan, L.S. 913-917
Neganov, B.S. 874-877 Scherer, T. 975-978 van de Klundert,L. 356-362, 612-617
Neuhaus, M. 975-978 Schlegeimiich, R. 163-165 Van Sciver, S.W. 75-86, 516-520
Ni, B. 949-953 Schmidt, C. 618-623 Vasil’ev, V.V. 459 - 460
Cryogenics 1991 Vol 31 December 1081
Index
Vedrine, P Wilson, N. 499 —- 503 Yokoyama, S. 521-523
Vekshina, V.S Windte, V 366 — 368 Yoneyama, Y. 607 -611
Viana, R.J. Wipf, S.L. 936 —- 948 Yoshida, J. 640 - 644
Vogt, A Yoshida, T. 690 - 692
Vojtsenya, S.V Xiong, X.Z. 178-182 Yoshiki, H. 456-458
Xu, P. 439-449 Yu,A. 979-984
Wada, H Yuan, S.L. 178-182
Wagner, H.-J Yagi, Y. 660 —- 663 Yuriyev, V.P. 373-378
Wagner, J.A Yamada, K. 543 — 546 Yuyama, J. 786 — 790
Wake, M Yamada, T. 521-523 Yuyama, M. 900 —-9 05
Wailia, Yamafuji, K. 431-438, 594-597
Wang, Yamaguchi, K. 660 - 663
Wang, Yamamoto, J. 307 — 311, 634-639 Zeiss, C. 163-165
Wang, Y.G. Yamamoto, S. 521-523 Zhang, J. 88-4 88 9
Weber, H.W 312-318, Yamamura, S. 585 — 589 Zhang, Liang 87-93
Weisend Il, J.G Yanagi, N. 634 —- 639 Zhang, Qinggeng 87-93
Weiss, R 64 —-6 9, Yang, Hongchuan 760 — 762 Zhang, W. 82—6 83 2
Wellhofer, F Yang, X. 348 — 353 Zhang, Y.Z. 439-449
Weyhmann, W Yang, Y. 178-182 Zhao, Haoping 13—6 13 7
White, G.K. Yasuda, J 261 — 264, 273-276, Zhao, Y.Y. 439-449
Willekers, R.W 288 —- 291 Zhao, Z.P. 817-835
Williams, J.E.C Yatabe, S. 607 -611 Zhou, D. 138-139
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