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The article contains sections titled: 1. Introduction 2. Principles 2.1. Electrical Resistance and Thermal Conductivity 2.2. Behavior in Magnetic Fields 2.3. Critical Current 2.4. Energy Gap and Thermodynamic Properties 2.5. Josephson Effects 2.6. Theoretical Descriptions 3. Classes of Superconductors 3.1. Classical Superconductors 3.2. Exotic Superconductors 3.3. High‐Temperature Superconductors 4. Electronic Applications of Superconductivity 4.1. Superconductivity Effects Important for Electronic Applications 4.1.1. Pure Inductances 4.1.2. Small High‐Frequency Losses 4.1.3. Energy‐Gap Effects 4.1.4. Quantum Interference Effects 4.2. Josephson Junctions, Tunnel Junctions, and Weak Links 4.2.1. Junction Types and Their Significance 4.2.2. Josephson Circuits, Digital Circuits, Digital Signal Processing, and Voltage Standards 4.2.3. SQUIDs 4.2.4. SQUIDs and Biomagnetism 4.3. Applications of HT Superconductors 4.3.1. Materials and Techniques for HT‐Superconducting Electronics 4.3.2. Operating Temperatures of HT‐Superconducting Electronics 4.3.3. Passive Components Based on HT Superconductors 4.3.4. HT‐Superconductor Radiation Detectors 4.3.5. Nonlinear HT‐Superconductor Components 4.3.6. HT‐Superconductor SQUIDs 4.4. Refrigerators for Cryoelectronics 5. Application of Superconductivity in Magnet and Power Engineering 5.1. Introduction 5.2. Industrial Superconductors 5.2.1. Metallic Superconductors 5.2.2. Oxide‐Ceramic Superconductors 5.3. Potential Superconductivity for Improvements in Conventional Electrical Devices 5.3.1. Superconducting Magnets for High‐Energy Physics 5.3.2. Magnetic Separation and Purification 5.3.3. Superconducting Levitation for High‐Speed Transportation Systems 5.3.4. Generators and Motors with Superconducting Windings 5.3.5. Superconducting Transformers 5.3.6. Superconducting Power‐Transmission Cables 5.4. Novel Electrical Devices for Which Superconductors Are Indispensable 5.4.1. Magnets for Magnetic Resonance Imaging (MRI) and Spectroscopy 5.4.2. Magnet Systems for Magnetic‐Confinement Fusion Reactors 5.4.3. Magnetohydrodynamic Energy Conversion 5.4.4. Superconducting Magnetic Energy Storage (SMES) 5.4.5. Superconducting Current Limiters 6. Organic Superconductors 6.1. Introduction 6.2. Electronic Structure and Superconductivity 6.3. Other Features of 1‐D Superconductors 6.4. Prospects for Higher T c and Applications
The article contains sections titled: 1. Introduction 2. Principles 2.1. Electrical Resistance and Thermal Conductivity 2.2. Behavior in Magnetic Fields 2.3. Critical Current 2.4. Energy Gap and Thermodynamic Properties 2.5. Josephson Effects 2.6. Theoretical Descriptions 3. Classes of Superconductors 3.1. Classical Superconductors 3.2. Exotic Superconductors 3.3. High‐Temperature Superconductors 4. Electronic Applications of Superconductivity 4.1. Superconductivity Effects Important for Electronic Applications 4.1.1. Pure Inductances 4.1.2. Small High‐Frequency Losses 4.1.3. Energy‐Gap Effects 4.1.4. Quantum Interference Effects 4.2. Josephson Junctions, Tunnel Junctions, and Weak Links 4.2.1. Junction Types and Their Significance 4.2.2. Josephson Circuits, Digital Circuits, Digital Signal Processing, and Voltage Standards 4.2.3. SQUIDs 4.2.4. SQUIDs and Biomagnetism 4.3. Applications of HT Superconductors 4.3.1. Materials and Techniques for HT‐Superconducting Electronics 4.3.2. Operating Temperatures of HT‐Superconducting Electronics 4.3.3. Passive Components Based on HT Superconductors 4.3.4. HT‐Superconductor Radiation Detectors 4.3.5. Nonlinear HT‐Superconductor Components 4.3.6. HT‐Superconductor SQUIDs 4.4. Refrigerators for Cryoelectronics 5. Application of Superconductivity in Magnet and Power Engineering 5.1. Introduction 5.2. Industrial Superconductors 5.2.1. Metallic Superconductors 5.2.2. Oxide‐Ceramic Superconductors 5.3. Potential Superconductivity for Improvements in Conventional Electrical Devices 5.3.1. Superconducting Magnets for High‐Energy Physics 5.3.2. Magnetic Separation and Purification 5.3.3. Superconducting Levitation for High‐Speed Transportation Systems 5.3.4. Generators and Motors with Superconducting Windings 5.3.5. Superconducting Transformers 5.3.6. Superconducting Power‐Transmission Cables 5.4. Novel Electrical Devices for Which Superconductors Are Indispensable 5.4.1. Magnets for Magnetic Resonance Imaging (MRI) and Spectroscopy 5.4.2. Magnet Systems for Magnetic‐Confinement Fusion Reactors 5.4.3. Magnetohydrodynamic Energy Conversion 5.4.4. Superconducting Magnetic Energy Storage (SMES) 5.4.5. Superconducting Current Limiters 6. Organic Superconductors 6.1. Introduction 6.2. Electronic Structure and Superconductivity 6.3. Other Features of 1‐D Superconductors 6.4. Prospects for Higher T c and Applications
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