
Recent Developments in Cryogenics Research
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Content
- Intro
- Contents
- Preface
- Chapter 1
- 3He
- Abstract
- 1. Introduction
- 2. Short Description of 3He Properties
- 2.1. 3He Gas
- 2.2. 3He Liquid
- 2.3. 3He Solid
- 3. Heat Transfer
- 4. Recent Progress on 3He Research
- 4.1. 3He Theories
- Topological Defects
- Topological Matter and Topological Phenomena
- Quantum Turbulence
- Magnon Bose Einstein Condensation
- Unconventional Superconductivity
- Novel Properties
- 4.2. 3He Experiments
- Conclusion
- References
- Chapter 2
- 4He
- Abstract
- 1. Introduction
- 2. Short Description of 4He Properties
- 2.1. 4He Gas
- 2.2. 4He Liquid
- 2.3. 4He Solid
- 3. Heat Transfer
- 4. Resent Progress on 4He Research
- 4.1. 4He Theories
- 4.2. 4He Experiments
- Conclusion
- References
- Chapter 3
- Heavy Fermions
- Abstract
- 1. Introduction
- 2. Theoretical Background
- 2.1. Fermi Gas, Liquid and Non-Fermi Liquid
- 2.2. Kondo Effect in f-Electron Compounds
- 2.3. Classical and Quantum Phase Transitions
- 2.4. Topological Transitions
- 2.5. Superconductivity
- 3. Cerium Compounds: Classics of HF
- CeRu2Si2
- CeRu2Ge2
- YbRu2Si2
- CeCu6, CeCu6-xAux
- 4. Unconventional Superconductivity
- CeRhIn5
- CeIrIn5, CeCoIn5
- PuCoGa5
- CePt3Si
- PrOs4Sb12
- 5. Ferromagnetism and Superconductivity
- UGe2
- URhGe
- ZrZn2
- eFe
- 6. Uranium Superconductivity
- UPt3
- UPd2Al3
- URu2Si2
- UBe13
- Conclusion
- References
- Chapter 4
- Ultra-Low Temperature Technique
- Abstract
- 1. Introduction
- 2. Temperature Scales
- 3. Temperature Measurement
- 4. Cooling Methods Below 1 K
- Conclusion
- References
- Chapter 5
- Cryogenic Engineering of Cryostats with Superconducting Magnets and Cavities
- Abstract
- 1. Introduction
- 2. SC Cavities and Magnets: Short Review
- 2.1. SC Cavities
- 2.2. SC Magnets
- 3. Cryostat and Cryomodule Design
- 3.1. SC Magnets for Fusion
- 3.2. SC Magnets for Accelerators
- 3.3. SC Cavities for Accelerators
- 4. Resent Progress on Cryostats/Cryomodule Design
- 4.1. Cryostats for Nuclear Fusion Facilities
- 4.2. Cryostats/Cryomodules for Accelerators with SC Magnets
- 4.3. Cryostats/Cryomodules for Accelerators with SC Cavities
- Conclusion
- References
- Chapter 6
- Large Scale Cryogenic Facilities
- Abstract
- 1. Introduction
- 2. LHC
- 3. XFEL/DESY
- 4. FAIR/GSI
- 5. ESS
- 6. ITER
- 7. Wendelstein 7X
- 8. LHD
- 9. KSTAR
- 10. CEBAF
- 11. RHIC
- 12. FRIB
- 13. SNS
- 14. LCLS-II
- Conclusion
- References
- Chapter 7
- Refrigerators
- Abstract
- 1. Introduction
- 2. Standard Refrigerators
- 2.1. Cooling Capacities
- 2.2. Increasing Reliabilities of Single Components
- 2.3. Options
- 3. Large-Scale Refrigerators
- 3.1. Air Liquide
- 3.2. Linde Kryotechnik
- 3.3. Jefferson Lab
- 3.4. LHC
- 3.5. XFEL/DESY
- 3.6. FAIR/GSI
- 3.7. ESS
- 3.8. ITER
- 3.9. Wendelstein 7X
- 3.10. LHD
- 3.11. KSTAR
- 3.12. CEBAF
- 3.13. RHIC
- 3.14. FRIB
- 3.15. SNS
- 3.16. LCLS-II
- 3.17. Large Cryocoolers
- 3.17.1. Cryomech
- 3.17.2. Sumitomo
- Conclusion
- References
- Chapter 8
- Heat Transfer
- Abstract
- 1. Introduction
- 2. Heat Transfer Regions for 4He
- 2.1. Supercritical Helium
- 2.2. Compressed Fluid
- 2.3. Critical Region
- 2.4. Low Pressure Gaseous Helium (Gas and Vapor)
- 2.5. Two-Phase Normal Fluid Helium
- 2.6. Single Phase Subcooled Normal Fluid Helium
- 2.7. Two-Phase Superfluid Helium
- 2.8. Single Phase Subcooled Superfluid Helium
- 2.9. Transient Heat Transfer
- 3. Recent Progress in Heat Transfer Investigations for 4He
- 3.1. Supercritical Helium
- 3.2. Compressed Fluid
- 3.3. Critical Region
- 3.4. Low Pressure Gaseous Helium (Gas and Vapor)
- 3.5. Two-Phase Normal Fluid Helium
- 3.6. Single Phase Subcooled Normal Fluid Helium
- 3.7. Two-Phase Superfluid Helium
- 3.8. Single Phase Subcooled Superfluid Helium
- 3.9. Transient Heat Transfer
- Conclusion
- References
- Chapter 9
- Cryogenic Instrumentation
- Abstract
- 1. Introduction
- 2. Temperature Sensors
- 2.1. Cernox
- 2.2. Si-Diodes
- 2.3. TVO
- 2.4. Reading Electronics
- 3. Flow Meters
- 4. Stain Gauges and Pressure Transmitters
- 5. Level Meters
- Conclusion
- References
- Chapter 10
- Cryogenic Level Meters
- Abstract
- 1. Introduction
- 2. Measurement of Cryogenic Fluid Level - General Considerations
- 2.1. Hydrostatic Level Measurement
- 2.2. Floats
- 2.3. Transmission Line Type Cryogenic Liquid Level Measurement
- 2.4. Liquid Level Ultrasonic Measurement Method
- 2.5. Cryogenic Level Meters Based on SAW
- 2.6. Liquid-Vapor Discriminator Methods (LVD) and Discrete Liquid Level Measurement Techniques
- 2.6.1. LVDs Devices with Membrane
- 2.6.2. Resistive LVDs Superconductor Type
- 2.6.3. Resistive LVDs Devices with Hotwire
- 2.6.4. Resistive LVDs Semiconductor Type Devices
- 2.6.5. Other LVDs Methods
- 2.7. Cryogenic Liquid Level Measurement with Superconducting Wire
- 2.8. Cryogenic Level Meters Based on Fiber-Optic Devices
- 2.8.1. Discrete Type Devices
- 2.8.1.1. Hemispherical Discrete Devices
- 2.8.1.2. Prismatic Point Sensors Discrete Devices
- 2.8.2. Liquid Level Detection Based on Total Internal Reflection
- 2.8.3. Cryogenic Liquid Level Sensing with Self-Heated Optical Fiber Sensor
- 2.8.3.1. Fiber Bragg Technology
- 2.8.3.2. The Fabrication of FBG
- 2.9. Capacitive Cryogenic Liquid Level Measurement
- 2.9.1. The Temperature and Pressure Effects on Capacitance Type Cryogenic Liquid Level Measurement Accuracy
- 2.9.2. Uncertainty Analysis for Capacitance Type Cryogenic Liquid Level Measurement Accuracy
- 2.9.3. 3D Wire Mesh Capacitive Sensors Used as Level Indication for Cryogenic Liquefied Gases in Distillation Columns
- 2.9.4. 3D Wire Mesh Capacitive Sensors Used for Isotopic Concentration Determination of a Cryogenic Protium-Deuterium Liquefied Gases Mixture
- 2.10. Special Methods for Cryogenic Liquid Level Measurement
- 2.10.1. Calorimetric Methods
- 2.10.1.1. The Instantaneous Heat Pulse Technique
- 2.10.1.2. The Weak Heat Pulse Technique
- 2.10.2. Mass Gauging with Discrete Devices
- 2.10.3. Continuous Level Measurement Methods
- 2.10.3.1. Radio Frequency Mass Gauging RFMG
- 2.10.3.2. Helmholtz Resonance
- Conclusion
- References
- Chapter 11
- Cryogenic Electronics
- Abstract
- 1. Introduction
- 2. Low Temperature Physics Laboratories
- 3. Cosmic Rays Detectors for Astrophysics Research
- 4. LNA for High Frequency Applications
- 5. SQUID/SQIF
- 6. Detectors at Accelerators
- 7. Particle Detectors for Non-Accelerator Applications
- Conclusion
- References
- Chapter 12
- Safety
- Abstract
- 1. Introduction
- 2. Dimensioning of Safety Devices: Norms and Possible Accidents
- 2.1. Restriction to Cryostat Type and Type of Accident
- 2.2. Short Overview of Normative Base
- 2.3. Inconsistencies in Norms and Their Consequences
- 2.4. Difficult Accomplishable Parts of Norms
- 2.5. Accidents and Related Heat Transfer Coefficients
- 2.6. Discussion
- 2.6.1. Proposal to Use the Probabilistic Risk Assessment
- 2.6.2. Some Comments from Our Experience
- 3. Heat Transfer Coefficients
- 3.1. Magnet Quench
- 3.2. Break of Insulation Vacuum
- 3.2.1. Helium Penetration
- 3.2.2. Air Penetration
- 3.2.3. Critical Hole Area
- 3.2.4. Discussion
- 4. Personnel Safety Inside Confined Areas
- Conclusion
- Acknowledgments
- References
- Chapter 13
- Cryogenic Energy Storage: Characteristics, Potential Applications and Economic Benefit
- Abstract
- Introduction
- State of the Art
- Characteristics
- Potential Application
- Economic Benefits
- Challenges and Potentials
- References
- About the Editor
- List of Contributors
- Index
- Blank Page
- Blank Page
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