Military Space Cryogenic Cooling Requirements for the 21st Century | p. 1 |
Status of Programs for the DoD Family of Linear Drive Cryogenic Coolers for Weapon Systems | p. 11 |
Air Force Research Laboratory Cryocooler Characterization and Endurance Update | p. 17 |
Air Force Research Laboratory Cryocooler Reliability Initiatives | p. 27 |
Protoflight Spacecraft Cryocooler Performance Results | p. 35 |
Characterization of Raytheon's 60K 2 W Protoflight Spacecraft Cryocooler | p. 45 |
The Development of a 10K Closed Cycle Stirling Cooler for Space Use | p. 55 |
Development of a 12K Stirling Cycle Precooler for a 6K Hybrid Cooler System | p. 63 |
Thermodynamic Optimization of Multi-Stage Cryocoolers | p. 69 |
The Advent of Low-Cost Cryocoolers | p. 79 |
Performance and Reliability Improvements in a Low-Cost Stirling Cycle Cryocooler | p. 87 |
Development of a Long-Life Stirling Cryocooler | p. 95 |
Flexure Springs Applied to Low-Cost Linear Drive Cryocoolers | p. 103 |
High Reliability Coolers under Development at Signaal-USFA | p. 111 |
Development of a Long-Life Stirling Pulse Tube Cryocooler for Superconducting Filter Subsystems | p. 119 |
Development of a 5W at 65K Air-Cooled Pulse Tube Cryocooler | p. 125 |
TES FPC Flight Pulse Tube Cooler System | p. 131 |
The AIM Space Cryocooler Program | p. 139 |
Miniature Pulse Tube Cryocooler for Space Applications | p. 145 |
Gamma-Ray Pulse Tube Cooler Development and Testing | p. 155 |
High Efficiency Pulse Tube Cooler | p. 163 |
High Performance Flight Cryocooler Compressor | p. 169 |
Vibration Reduction in Balanced Linear Compressors | p. 175 |
95K High Efficiency Cryocooler Program | p. 183 |
Design and Test of the NIST/Lockheed Martin Miniature Pulse Tube Flight Cryocooler | p. 189 |
Low-Cost Pulse Tube Liquefier for In-Situ Resource Utilization | p. 199 |
Performance Characteristics of a 4K Pulse Tube in Current Applications | p. 205 |
Experimental Study of a 4K Pulse Tube Cryocooler | p. 213 |
GM-Type Two-Stage Pulse Tube Cooler with High Efficiency | p. 221 |
Developments on Single and Double Stage GM Type Pulse Tube Cryorefrigerators | p. 229 |
30-50K Single Stage Pulse Tube Refrigerator for HTS Applications | p. 235 |
Two-Stage 4K Pulse Tube Refrigerator | p. 243 |
Compressor-Specific Design of a Single-Stage Pulse Tube Refrigerator | p. 249 |
A Novel Multi-Stage Expander Concept | p. 259 |
Numerical Study of a New Type of 4K GM/PT Hybrid Refrigerator | p. 265 |
Thermally Actuated [superscript 3]He Pulse Tube Cooler | p. 273 |
Investigation of Helium and Nitrogen Mixtures in a Pulse Tube Refrigerator | p. 281 |
Pulse Tube Refrigeration with a Combined Cooling and Freezing Cycle for HTSC Devices | p. 291 |
Experimental Investigation of a Pulse Tube Refrigerator Driven by a Thermoacoustic Prime Mover | p. 301 |
Design, Development, and Operation of a Thermo-Acoustic Refrigerator Cooling to below -60[superscript [degree]] | p. 309 |
Design of a Miniature Pulse Tube Refrigerator | p. 317 |
Investigation of a Single Stage Four-Valve Pulse Tube Refrigerator for High Cooling Power | p. 327 |
Analysis and Experimental Research of a Multi-Bypass Version Pulse Tube Refrigerator | p. 337 |
Experimental Study of the Heat Transfer in Pulse Tubes | p. 345 |
Shuttle Loss in Pulse Tubes | p. 353 |
Numerical Study of Gas Dynamics Inside of a Pulse Tube Refrigerator | p. 363 |
Visualization of DC Gas Flows in a Double-Inlet Pulse Tube Refrigerator with a Second Orifice Valve | p. 371 |
A Gifford-McMahon Cycle Cryocooler below 2K | p. 381 |
High Efficiency, Single-Stage GM Cryorefrigerators Optimized for 20 to 40K | p. 387 |
Remote Cooling with a G-M Cryocooler by Use of Cold Electro-magnetic Valves Driving an External Flow Loop | p. 393 |
Optimum Intermediate Temperatures of Two-Stage Gifford-McMahon Type Coolers | p. 401 |
Regenerator Behavior with Heat Input or Removal at Intermediate Temperatures | p. 409 |
Measurement of Heat Conduction through Metal Spheres | p. 419 |
Innovative Technology for Low Temperature Regenerators | p. 427 |
Ductile, High Heat Capacity, Magnetic Regenerator Alloys for the 10 to 80K Temperature Range | p. 433 |
Low Temperature Properties of HoSb, DySb, and GdSb | p. 443 |
Manufacturing Considerations for Rare Earth Powders Used in Cryocooler and Magnetic Refrigerator Applications | p. 449 |
Magnetothermal Properties of Polycrystalline Gd[subscript 2]In | p. 457 |
New Regenerator Material for Sub-4K Cryocoolers | p. 465 |
New Regenerator Materials for Use in Pulse Tube Coolers | p. 475 |
Advanced Developments for Low Temperature Turbo-Brayton Cryocoolers | p. 481 |
Lifa and Reliability Characteristics of Turbo-Brayton Coolers | p. 489 |
A Flexible Turbo-Brayton Cryocooler Model | p. 499 |
A 10K Cryocooler for Space Applications | p. 505 |
Modern Trends in Designing Small-Scale Throttle-Cycle Coolers Operating with Mixed Refrigerants | p. 513 |
Thermodynamic Analysis of an Mixed-Refrigerant Auto-Cascade J-T Cryocooler with Distributed Heat Load | p. 523 |
PLANCK Sorption Cooler Initial Compressor Element Performance Tests | p. 531 |
Sizing and Dynamic Performance Prediction Tools for 20K Hydrogen Sorption Cryocoolers | p. 541 |
165K Microcooler Operating with a Sorption Compressor and a Micromachined Cold Stage | p. 551 |
Double Stage Helium Sorption Coolers | p. 561 |
Sub-Kelvin Sorption Coolers for Space Application | p. 567 |
Closed-Cycle Cooling of Infrared Detectors to 0.25K for the Polatron | p. 577 |
A Continuous Adiabatic Demagnetization Refrigerator for Use with Mechanical Coolers | p. 587 |
Reaching 96 mK by a Pulse-Tube Precooled Adiabatic Demagnetization Refrigerator | p. 597 |
Dissipation in Metal Welded Bellows and Its Consequences for Sub-Kelvin Refrigerators | p. 605 |
Design and Predicted Performance of an Optical Cryocooler for a Focal Plane Application | p. 613 |
Optical Refrigeration Using Anti-Stokes Fluorescence from Molecular Dyes | p. 621 |
Solid-State Optical Cooler Developments | p. 631 |
Cryocooler Reliability and Redundancy Considerations for Long-Life Space Missions | p. 637 |
Space Cryocooler Contamination Lessons Learned and Recommended Control Procedures | p. 649 |
Cryocooler Contamination Study: Temperature Dependence of Outgassing | p. 659 |
BAE's Life Test Results on Various Linear Coolers and Their Correlation with a First Order Life Estimation Method | p. 665 |
Initial Observations from the Disassembly and Inspection of the TRW 3503 and Creare SSRB | p. 673 |
Cryogenic Material Properties Database | p. 681 |
Experimental Results on the Thermal Contact Conductance of Ag-Filled Epoxied Junctions at Cryogenic Temperatures | p. 689 |
A Fail-Safe Experiment Stand for Cryocooler Characterization | p. 699 |
Development and Testing of a Gimbal Thermal Transport System | p. 707 |
Cryocooler Interface System | p. 719 |
Development and Testing of a High Performance Cryogenic Thermal Switch | p. 729 |
Thermally Conductive Vibration Isolation System for Cryocoolers | p. 739 |
Advanced Cryogenic Integration and Cooling Technology for Space-Based Long Term Cryogen Storage | p. 749 |
MOPITT On-Orbit Stirling Cycle Cooler Performance | p. 759 |
HIRDLS Instrument Flight Cryocooler Subsystem Integration and Acceptance Testing | p. 769 |
Low-Temperature, Low-Vibration Cryocooler for Next Generation Space Telescope Instruments | p. 775 |
Considerations in Applying Open Cycle J-T Cryostats to Cryosurgery | p. 783 |
Interference Characterization of Cryocoolers for a High-Tc SQUID-Based Fetal Heart Monitor | p. 793 |
Vapor Precooling in a Pulse Tube Liquefier | p. 803 |
Terrestrial Applications of Zero-Boil-Off Cryogen Storage | p. 809 |
Indexes | p. 817 |
Proceedings Index | p. 817 |
Author Index | p. 819 |
Subject Index | p. 821 |
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