| Development of a Large-capacity, Stirling-type, Pulse-tube Refrigerator (p. 3) |
| by Potratz, S A |
| Performance Prediction and Experimental Investigations on Integral Pulse Tube Cryocooler for 15 W at 70 K Using Indigenously Developed Linear Compressor (p. 11) |
| by Gawali, B S |
| Performances of Stirling Type Pulse Tube Cryocooler for Sub-cooled Nitrogen System (p. 19) |
| by Ohtani, Y |
| Control of Secondary Flow in a Double-inlet Pulse Tube Refrigerator (p. 27) |
| by Shiraishi, M |
| Novel Regenerator Material Improving the Performance of a Single Stage Pulse Tube Cooler (p. 35) |
| by Koettig, T |
| Pulse Tube Refrigerator Based Cryogenic Cooling Circuit for NMR Cold Probes (p. 41) |
| by Atrey, M D |
| The Development of a Pulse Tube Cooler with More than 1 W at 4.2 K (p. 49) |
| by Hofmann, A |
| Inertance Tube Optimization for Pulse Tube Refrigerators (p. 59) |
| by Radebaugh, R |
| Thermal Performance of the LDX Floating Coil (p. 78) |
| by Zhukovsky, A |
| A Study on the Heat Transfer Properties of Pressurized Helium II through Fine Channels (p. 97) |
| by Kimura, N |
| Experimental and Numerical Studies on Thermal Hydraulic Characteristics of He II through Porous Media (p. 105) |
| by Hamaguchi, S |
| Transient Heat Transfer from a Flat Plate in Forced Flow of Pressurized He II (p. 121) |
| by Nishida, J |
| Transient Heat Transfer Measurements in Forced Flow of He II at High Velocities (p. 129) |
| by Fuzier, S |
| Helium POT System for Maintaining Sample Temperature after Cryocooler Deactivation (p. 147) |
| by Haid, B J |
| Numerical Analysis and Experimental Study on Natural Convection in the Sample Enclosure Cooled by a G-M Refrigerator (p. 164) |
| by Fang, Z C |
| Design Optimization of Liquid Nitrogen Based IQF Tunnel (p. 171) |
| by Datye, A B |
| Automatic Transfer between Two Cryogenic Robots for the Laser Megajoule Facility (p. 178) |
| by Paquignon, G |
| Experimental Investigation of Multilayer Insulation by Using Boil-off Calorimetry (p. 189) |
| by Yang, H S |
| The Outgassing Test of a HTS Power Cable Cryostat (p. 195) |
| by Yeom, Han-Kil |
| ZBO Cryogenic Propellant Storage Applied to a Mars Sample Return Mission Concept (p. 205) |
| by Plachta, D W |
| Cryo-Tracker Mass Gauging System Testing in a Launch Vehicle Simulation (p. 213) |
| by Schieb, Daniel J |
| Optical Gauging of Liquid and Solid Hydrogen in Zero-g Environments for Space Applications (p. 224) |
| by Caimi, F M |
| Liquid Nitrogen (Oxygen Simulant) Thermodynamic Vent System Test Data Analysis (p. 232) |
| by Hedayat, A |
| Testing of a Spray-Bar Thermodynamic Vent System in Liquid Nitrogen (p. 240) |
| by Flachbart, R H |
| Design and Analysis of a Scalable In-situ Cryogen Production Facility for Space Exploration (p. 248) |
| by Petrick, D E |
| Autotune of PID Temperature Control Based on Closed-loop Step Response Tests (p. 259) |
| by Sheats, D C |
| Cryogenic Fiber Optic Temperature Sensors Based on Fiber Bragg Gratings (p. 267) |
| by Yeager, C J |
| Cryogenic Radio Frequency Two-phase Flowmeter (p. 273) |
| by Lovell, Thomas W |
| A Cryogenic Mass Flow Sensor (p. 281) |
| by Kocak, D M |
| Cryo-delivery Systems for the Co-transmission of Chemical and Electrical Power (p. 291) |
| by Grant, Paul M |
| Dewar Safety : Risks and Corrective Actions(p. 313) |
| by Boyle, R F |
| Hydrogen Safety Issues Compared to Safety Issues with Methane and Propane (p. 319) |
| by Green, M A |
| Design Model for a Two-stage Pulse Tube Cryocooler (p. 329) |
| by Shi, J L |
| Modelling of a 10 K Collins Type Cryocooler (p. 337) |
| by Chaudhry, G |
| Enthalpy, Entropy, and Exergy Flows : Real Gas Effects in Ideal Pulse Tube Cryocoolers(p. 345) |
| by Kittel, P |
| Thermoacoustic Analysis of Displacer Gap Loss in a Low Temperature Stirling Cooler (p. 353) |
| by Kotsubo, Vincent |
| Motor and Thermodynamic Losses in Linear Cryocooler Compressors (p. 361) |
| by Reed, J |
| Influence of the Steady Background Turbulence Level on Second Sound Dynamics in He II (p. 371) |
| by Dalban-Canassy, M |
| Heat Transport Near the Lambda Line in a Channel Containing He II (p. 379) |
| by Maeda, M |
| Temperature Dependence of the Gorter-Mellink Exponent m Measured in a Channel Containing He II (p. 387) |
| by Sato, A |
| Variation of Film Boiling Modes in He II from Strongly to Weakly Subcooled States (p. 393) |
| by Nozawa, M |
| Heat Transfer Coefficient Measurement Study of Several Film Boiling Modes in Subcooled He II (p. 401) |
| by Takada, S |
| Heat Transfer through Porous Media in Static Superfluid Helium (p. 409) |
| by Baudouy, B |
| Effect of Property Variations on the Operation of Superfluid Porous Plug Pumps (p. 417) |
| by Snyder, H A |
| A Liquid Helium Circulation System for MEG (p. 427) |
| by Takeda, T |
| Assessment of Commecial Fluorescent Paints on Their Applicability to the Cryogenic Thermography System (p. 441) |
| by Nara, K |
| The Effect of the Variability in the Isotopic Composition of Gases on Top-Accuracy Cryogenic Temperature Standards and Remedies (p. 451) |
| by Pavese, F |
| Forced Convection Heat Transfer of He I and He II at Pressures up to Supercritical (p. 459) |
| by Shiotsu, M |
| Ortho and Para Hydrogen Concentration Determination Based on Vapor Pressure (p. 475) |
| by Lydzinski, S R |
| Thermal Conductivity of Powder Insulations for Cryogenic Storage Vessels (p. 480) |
| by Choi, Y S |
| Thermal Diffusion of Heat Pulse in Subcooled Liquid Nitrogen (p. 488) |
| by Chang, H M |
| Helium Transfer System for the Superconducting Devices at NSRRC (p. 515) |
| by Li, H C |
| Performance Assessment of 239 Series Sub-cooling Heat Exchangers for the Large Hadron Collider (p. 523) |
| by Riddone, G |
| Development of an Energy Efficient Cryogenic Transfer Line with Magnetic Suspension (p. 531) |
| by Shu, Quan-Sheng |
| Testing of Prototype Magnetic Suspension Cryogenic Transfer Line (p. 539) |
| by Fesmire, J E |
| Numerical Analysis of the Final Cooldown of a 3.3 km Sector of the Large Hadron Collider (p. 547) |
| by Liu, L |
| A Unified Perspective of Cryocoolers (p. 557) |
| by Maytal, B Z |
| The Behavior of Mass Flow Rate of a Joule-Thomson Refrigerator (p. 565) |
| by Hong, Yong-Ju |
| Nitrogen Separation and Liquefaction Apparatus for Medical Applications and Its Thermodynamic Optimization (p. 573) |
| by Chorowski, M |
| Cryosorption Pumps for a Neutral Beam Injector Test Facility (p. 583) |
| by Dremel, M |
| Design and Build of Magnetic Refrigerator for Hydrogen Liquefaction (p. 591) |
| by Kamiya, K |
| Numerical Simulation and Optimazation of Small Scale LNG Plant (p. 598) |
| by Li, H Y |
| NASA's Advanced Cryocooler Technology Development Program (ACTDP) (p. 607) |
| by Ross, R G |
| NGST Advanced Cryocooler Technology Development Program (ACTDP) Cooler System (p. 615) |
| by Durand, D |
| Development of a Space-Type 4-Stage Pulse Tube Cryocooler for Very Low Temperature (p. 623) |
| by Olson, J R |
| Ball Aerospace 4-6 K Space Cryocooler (p. 632) |
| by Glaister, D S |
| Development of a 25 K Pulse Tube Refrigerator for Future HTS-Series Products in Power Engineering (p. 643) |
| by Gromoll, B |
| Rotating Cryocooler for Superconducting Motor (p. 653) |
| by Ko, Junseok |
| Design of a Very Large Pulse Tube Cryocooler for HTS Cable Application (p. 661) |
| by Tanchon, J |
| Closed Loop Cooling Systems for HTS Applications (p. 669) |
| by Willems, D |
| A Superconductive MGB2 Level Sensor for Liquid Hydrogen (p. 679) |
| by Haberstroh, C |
| Gas Bearing Implementation of Small Cryocooler Compressor (p. 687) |
| by Kuo, D T |
| Performance of G-M Cryocooler with Oil-Free Linear Compressor (p. 696) |
| by Maddocks, J R |
| 4 Kelvin Cryogenic Probe for 500 MHz NMR (p. 704) |
| by Yoshimoto, F |
| Performance of a Miniature Pulse Tube Cryocooler (p. 712) |
| by Matsumoto, N |
| Investigation of the Characteristics for the Pulse Tube Refrigerator Using Active Phase Controller as a Phasor (p. 720) |
| by Kim, Y H |
| A Closed Neon Liquefier System for Testing Superconducting Devices (p. 729) |
| by Bianchetti, M |
| High Tc Superconducting Magnet Excited by a Semiconductor Thermoelectric Element (p. 735) |
| by Kuriyama, T |
| Experimental Validation of the LHC Helium Relief System Flow Modeling (p. 745) |
| by Fydrych, J |
| Pressure Rise Analysis When Hydrogen Leak from a Cracked Pipe in the Cryogenic Hydrogen System in J-PARC (p. 753) |
| by Tatsumoto, H |
| Design Result of the Cryogenic Hydrogen Circulation System for 1 MW Pulse Spallation Neutron Source (JSNS) in J-PARC (p. 763) |
| by Aso, T |
| Performance Testing of a Cryogenic Refrigeration System for HTS Cables (p. 773) |
| by Lee, R C |
| A Cool-down and Fault Study of a Long Length HTS Power Transmission Cable (p. 782) |
| by Yuan, J |
| Testing of a Liquid Nitrogen Cooled 5-meter, 3000 A Tri-Axial High Temperature Superconducting Cable System (p. 790) |
| by Demko, Jonathan A |
| Cryogenic System for 75M Three-phase AC HTS Cable (p. 798) |
| by Fan, Y F |
| Cooling Characteristics in Long Channels with Sub-cooled Nitrogen (p. 804) |
| by Fuchino, S |
| Thermomechanical Properties of 30M HTS Power Cable in DAPAS Project (p. 811) |
| by Kim, D H |
| High-frequency Pulse-tube Refrigerator for 4 K (p. 821) |
| by Tanaeva, I A |
| Small Helium Liquefiers Using 4 K Pulse Tube Cryocoolers (p. 829) |
| by Wang, C |
| Development of SHI 1.0 W 4 K Two-stage Pulse Tube Cryocoolers (p. 837) |
| by Xu, M Y |
| Development of a 4 K Separate Two-Stage Pulse Tube Refrigerator with High Efficiency (p. 845) |
| by Qiu, L M |
| Tandem GM Type-Pulse Tube Refrigerator with Novel Rotary Valve and Bypass Valve Mechanism (p. 853) |
| by Jung, J |
| 100th Anniversary of the Discovery of Helium in Natural Gas (p. 863) |
| by CadyLongsworth, Ralph |
| Debye Equation of State for 3HE from 0.01 to 20 K (p. 879) |
| by Huang, Y H |
| A New 3HE Vapor-Pressure Equation on the ITS-90 Scale (p. 887) |
| by Huang, Y H |
| Numerical Analysis on Shields and Struts Cooling Using Cold Helium Gas in Meco Magnets (p. 895) |
| by Tang, H M |
| Status of the ISAC-II Cryogenic System (p. 905) |
| by Stanford, G |
| Cold Tests of the ISAC-II Medium Beta Cryomodule (p. 913) |
| by Sekachev, I |
| Single Crystal Piezoelectric Actuators for Tunable HTS Filters (p. 928) |
| by Jiang, Xiaoning |
| Cryogen-Free Dilution Refrigerator Precooled by a Pulse-Tube Refrigerator with Non-Magnetic Regenerator (p. 939) |
| by Uhlig, K |
| The Experimental Evaluation of a Proof of Principle Superfluid Joule-Thomson Refrigerator (p. 946) |
| by Miller, F K |
| A Rapid Turnaround Two-Stage Adiabatic Demagnetization Refrigerator for Cooling to 50 mK (p. 954) |
| by Shirron, P J |
| Adiabatic Demagnetization Refrigerator Field Mapping and Shielding Models for a 70 mK Superconducting Transition Edge Sensor Array and Associated Electronics (p. 960) |
| by Ladner, D R |
| Progress on a 4 K to 10 K Continuously Operating Adiabatic Demagnetization Refrigerator (p. 969) |
| by Di Pirro, M |
| Microcooling Developments at the University of Twente (p. 977) |
| by Lerou, P P P M |
| Cryogenic Active Magnetic Regenerator Test Apparatus (p. 985) |
| by Tura, A |
| Numerical Analysis of an Active Magnetic Regenerator (AMR) Refrigeration Cycle (p. 993) |
| by Dikeos, J |
| Convection Design of Cryogenic Piping and Components (p. 1003) |
| by McIntosh, G E |
| CFD Modeling of ITER Cable-in-Conduit Superconductors. Part I : Friction in the Central Channel(p. 1009) |
| by Zanino, R |
| CFD Analysis on Two-phase Pipe Flow of Slush Nitrogen (p. 1017) |
| by Ishimoto, J |
| PIV Measurement of Slush Nitrogen Flow in a Pipe (p. 1025) |
| by Takakoshi, T |
| Fundamental Study of Pipe Flow and Heat Transfer Characteristics of Slush Nitrogen (p. 1033) |
| by Matsuo, K |
| The Los ALamos Neutron Science Center Hydrogen Moderator System (p. 1053) |
| by Jarmer, J J |
| Experiments and Valve Modelling in Thermoacoustic Device (p. 1095) |
| by Duthil, P |
| Preliminary Study on Circuit Simulation of Thermo Acoustic Engines (p. 1103) |
| by Jin, T |
| Effect of Resonance Tube Shape on Performance of Thermoacoustic Engine (p. 1109) |
| by Li, X |
| Investigation on Gedeon Streaming in a Traveling Wave Thermoacoustic Engine (p. 1115) |
| by Qiu, L M |
| Experimental Investigation of a Traveling-wave Refrigerator (p. 1123) |
| by Luo, E C |
| Experimental Study of Linear Compressor Driven Traveling-wave Thermo Acoustic Refrigerator (p. 1131) |
| by Wu, Z |
| Clarification of Some Important Issues in Basic Thermoacoustic Theory (p. 1139) |
| by Dai, W |
| Cryogenic Concept for the Low-energy Electrostatic Cryogenic Storage Ring (CSR) at MPI-K in Heidelberg (p. 1187) |
| by Von Hahn, R |
| Specifications and performances of series superfluid helium safety relief valves for the LHC (p. 1211) |
| by Perin, A |
| Specifications and Performance of Series Superfluid Helium Safety Relief Valves for the LHC (p. 1211) |
| by Perin, A |
| Qualification of Sub-atmospheric Pressure Sensors for the Cryomagnet Bayonet Heat Exchangers of the Large Hadron Collider (p. 1219) |
| by Jeanmonod, N |
| Automatic Management Systems for the Operation of the Cryogenic Test Facilities for LHC Series Superconducting Magnets (p. 1227) |
| by Tovar-Gonzalez, A |
| Diode Temperature Sensor Curve Estimation and Interchangeability for Non-Standard Excitation Currents (p. 1235) |
| by Courts, S S |
| New Thermometers and Multisensors for Cryogenic Temperature and Magnetic Field Measurements (p. 1243) |
| by Mitin, V F |
| Cryogenic Benefits of a 70 kA High Temperature Superconductor Current Lead (p. 1253) |
| by Zahn, G R |
| Cryogenic Test of High Temperature Superconducting Current Leads at Enea (p. 1269) |
| by Ballarino, A |
| Optimal Current-lead Design for the Rolls of Pierced-metal Sheet (p. 1276) |
| by Chang, H M |
| Performance of Miniature Coaxial Cabels for Read-out of Superconducting Tunnel Junction Arrays (p. 1284) |
| by Kushino, A |
| Mid-mission Update of Spitzer Space Telescope Cryogenic Performance (p. 1295) |
| by Finley, Paul T |
| Ultra-low Vibration Pulse Tube Cryocooler with a New Vibration Cancellation Method (p. 1325) |
| by Suzuki, T |
| Development of the LPT9510 1 W Concentric Pulse Tube (p. 1332) |
| by Mullié, J C |
| Cryostat with Low-Emissivity Foil and Multilayer Insulation (p. 1343) |
| by Gung, C |
| Demonstration of Microsphere Insulation in Cryogenic Vessels (p. 1351) |
| by Baumgartner, R G |
| Vibration and Thermal Cycling Effects on Bulk-fill Insulation Materials for Cryogenic Tanks (p. 1359) |
| by Fesmire, J E |
| Cryosystem for a Proton-radiography Achromat (p. 1377) |
| by Kelley, J P |
| The TORE SUPRA Cryogenic System Behaviour During Long Plasma Discharges with a High Injected Energy (p. 1412) |
| by Henry, D |
| The 400W at 1.8K Test Facility at CEA-Grenoble (p. 1420) |
| by Roussel, P |
| Two Refrigeration Systems Installed for the Tokamak at the Institute for Plasma Research, Ahmedabad, India (p. 1444) |
| by Caillaud, A |
| Numerical Analysis on Dynamic One-side Propagation of Normal Zone Observed in LHD Conductor (p. 1455) |
| by Ohya, M |
| Simulated Thermal Performance of the Superconducting Outsert in the Series Connected Hybrid Magnet System (p. 1463) |
| by Dixon, I R |
| A Novel Short Sample Mounting Fixture for Critical Current Measurements (p. 1471) |
| by Chesny, P |
| Progress Toward a Pulse-tube/Reverse-Brayton Hybrid Cryocooler (p. 1481) |
| by Evans, J C |
| Hybrid Stirling / Reverse Brayton and Multi-stage Brayton Cryocoolers for Space Applications (p. 1489) |
| by Kirkconnell, C S |
| CFD Simulation of Oscillating Flow in an Inertance Tube and its Comparison to Other Models (p. 1497) |
| by Gustafson, S |
| Development of Single Stage Stirling Cooler for Space Use (p. 1505) |
| by Narasaki, K |
| Cooling the GIFTS FPA : Summary and Analysis of Engineering Test Results Performed at SDL Using the Lockheed Martin Two-stage Cryocooler(p. 1513) |
| by Jensen, Scott M |
| Low Temperature Engineering Applied to Lunar in-situ Resource Utilization (p. 1523) |
| by Zhang, Burt X |
| Initial Test Results of Laboratory Scale Hydrogen Liquefaction and Densification System (p. 1530) |
| by Baik, J H |
| Thermal Model for a Mars Instrument with Thermo-electric Cooled Focal Plane (p. 1538) |
| by Ladner, D R |
| Evaluation of Pressure Oscillator Losses (p. 1549) |
| by Bradley, P E |
| Impedance Measurements of Inertance Tubes (p. 1557) |
| by Lewis, M A |
| Thermoacoustically Driven Pulse Tube Coolers with Acoustic Amplifiers (p. 1564) |
| by Hu, J Y |
| The Effect of Phase-shifting Mechanisms on the Energy and Exergy Flow in Pulse Tube Refrigerators (p. 1572) |
| by Razani, A |
| An Analytical Heat Transfer Model for Reciprocating Laminar Flow in a Channel (p. 1580) |
| by Grossman, G |
| Studies in High Frequency Oscillating Compressible Flow for Application in a Micro Regenerative Cryocooler (p. 1588) |
| by Garaway, I |
| Commissioning of the LHC Cryogenic System : Subsystems Cold Commissioning in Preparation of Full Sector Tests(p. 1599) |
| by Serio, L |
| The Local Helium Compound Transfer Lines for the Large Hadron Collider Cryogenic System (p. 1607) |
| by Parente, C |
| Results of the Cryogenic Tests of the Superconducting Magnets forming the Barrel Toroid of the ATLAS Experiment (p. 1628) |
| by Pengo, R |
| Cryogenic Tests of the Atlas Liquid Argon Calorimeter (p. 1635) |
| by Fabre, C |
| ICARUS : An Innovative Large LAR Detector for Neutrino Physics(p. 1643) |
| by Vignoli, C |
| Visualizing Heat Transport in Helium II (p. 1653) |
| by Van Sciver, S W |
| Comparison between Normal and HeII Two-phase Flows at High Vapor Velocities (p. 1669) |
| by Van Weelderen, R |
| PIV Analysis of Cavitation Flow Characteristics of He II (p. 1677) |
| by Harada, K |
| Solid H2/D2 Particle Seeding and Injection System for Particle Image Velocimetry (PIV) Measurement of He II (p. 1685) |
| by Xu Tong |
| Performance and Orientation Independence of Two Production Model Desktop Acoustic-Stirling Cryocoolers (p. 1703) |
| by James, E R |
| Characterization of a Co-axial Pulse Tube Cryocooler Applied as a Current Lead (p. 1711) |
| by Maekawa, R |
| The Development of the CryoTelTM LT and GT (p. 1719) |
| by Unger, Reuven |
| Pulse Tube Refrigerators for the Allen Telescope Array (p. 1726) |
| by Lugten, J B |
| High Efficient Cryocooler for Liquid Hydrogen System (p. 1732) |
| by Nakagome, H |
| Development of a 10 T Cryocooled Superconducting Magnet with a Room Temperature Bore of 360 mm for a 29 T Hybrid Magnet (p. 1743) |
| by Ito, T |
| Results of Buoyancy-gravity Effects in ITER Cable-in- Conduit Conductor with Dual Channel (p. 1749) |
| by Bruzzone, P |
| Review of Singular Cooling Inlet and Linear Pressure Drop for ITER Coils Cable in Conduit Conductor (p. 1757) |
| by Nicollet, S |
| A Critical Assessment of Pressure Drop Design Criteria for the Conductors of the ITER Magnets (p. 1765) |
| by Zanino, R |
| Cryogenic Test Apparatus for a Magnetic and Piezoelectric Actuation System (p. 1775) |
| by Francescutti, P |
| Cryogenic Actuators and Motors Using Single Crystal Piezoelectrics (p. 1783) |
| by Jiang, Xiaoning |
| Advanced Devices for Cryogenic Thermal Management (p. 1790) |
| by Bugby, D |
| Cryogenic Thermal Management Advances during the CRYOTOOL Program (p. 1799) |
| by Bugby, D |
| Rectified Continuous Flow Loop for the Thermal Management of Large Structures (p. 1809) |
| by Skye, H M |
| Development of a Superconducting Magnet System for the ONR/General Atomics Homopolar Motor (p. 1819) |
| by Schaubel, K M |
| Experimental Results Obtained with Air Liquide Cold Compression System : CERN LHC and SNS Projects(p. 1829) |
| by Delcayre, F |
| Performance Assessment of 35 Cold Hydrodynamic Compressors for the 1.8 K Refrigeration Units of the LHC (p. 1837) |
| by Millet, F |
| Development of a New Air Liquide Cryogenic Expander (p. 1845) |
| by Marot, G |
| Elimination of Thermal Acoustic Oscillations in Cryogenic Pumps (p. 1852) |
| by Miller, T J |
| Installation and Test of a Helium Centrifugal Pump into the TOSKA Facility (p. 1860) |
| by Zahn, G R |
| Progress Towards a 6-10 K Turbo-Brayton Cryocooler (p. 1869) |
| by Zagarola, M V |
| Development and Testing of a Small-scale Collins Type Cryocooler (p. 1877) |
| by Hannon, C L |
| Development of a 3-stage Pulse Tube Cryocooler for Cooling at 10K and 75K (p. 1885) |
| by Olson, J R |
| Microfabricated Microchanel Regenerators for Cryocoolers (p. 1895) |
| by Guidry, D J |
| Multilayer Ceramic Regenerator Materials for 4 K Cooling (p. 1904) |
| by Numazawa, T |
| Measurement of Anisotropic Hydrodynamic Parameters of Pulse Tube or Stirling Cryocooler Regenerators (p. 1911) |
| by Cha, J S |
| Regenerator Operation at Very High Frequencies for Microcryocoolers (p. 1919) |
| by Radebaugh, R |
| The Conduction of Heat through Cryogenic Regenerative Heat Exchangers (p. 1929) |
| by Superczynski, W F |
| On-Orbit Performance of the TES Pulse Tube Coolers and Instrument : A First Year in Space(p. 1937) |
| by Rodríguez, J |
| HIRDLS Cryocooler Subsystem on-orbit Performance (p. 1945) |
| by Lock, J |
| Development of a Large Heat Lift 40-80 K Pulse Tube Cooler for Space Applications (p. 1951) |
| by Trollier, T |
| Test Results of an Engineering Model 2-stage Pulse Tube Cryocooler for Cooling at 75 K and 130 K (p. 1959) |
| by Frank, D |
| Development of a Coaxial Pulse Tube Cryocooler for 77 K Cooling (p. 1967) |
| by Olson, J R |
| Dynamic Characteristics of a Simple Brayton Cryocycle (p. 1987) |
| by Kutzschbach, A |
| Helium Refrigerator Design for Pulsed Heat Load in Tokamaks (p. 1995) |
| by Kündig, A |
| Dynamic Simulation of a Large Scale Cryogenic Plant (p. 2002) |
| by Maekawa, R |
| Commissioning of the Cryogenic System for the ATLAS Superconducting Magnets (p. 2018) |
| by Delruelle, N |
| Commissioning of the Helium Refrigerator System for the Compact Muon Solenoid (CMS) Detector of LHC (p. 2026) |
| by Perinic, G |
| Commissioning of the Helium Refrigeration System for the Compact Muon Solenoid (CMS) Detector of LHC (p. 2026) |
| by Perinic, G |
| A 2K System for PKU-SCAF (p. 2034) |
| by Wang, L |
| Insulation Development For The Next European Dipole |
| by Canfer, S J |
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