The Net Advance of Physics

The Net Advance of Physics:
SUPERCONDUCTIVITY and SUPERCONDUCTORS

SUPERCONDUCTIVITY AND SUPERCONDUCTORS:

General: Definitions: Weisstein 98/02;
General: NET ADVANCE SPECIAL BIBLIOGRAPHY Melikidze; Froehlich et al. 95/08a;
- Lecture Notes on Superconductivity: Condensed Matter and QCD by Roberto Casalbuoni [2003/12]
- Resistance in Superconductors by Bertrand I. Halperin et al. [2010/05]
- Review on Superconducting Materials by Roland Hott et al. [2013/06]
- Circuit QED - Lecture Notes by Nathan K. Langford [2013/10]
- Superconductivity in the elements, alloys and simple compounds by G. W. Webb et al. [2015/02]
- Fenomenologia da Supercondutividade e Supercondutores Mesoscópicos by Rafael Zadorosny et al. [2015/05]
- Superconducting materials classes: introduction and overview by J. E. Hirsch et al. [2015/04]
- Unstable and elusive superconductors by Yakov Kopelevich et al. [Physica C 514, 237 (2015)]
- Superfluids and Superconductors: An Eighty Year Perspective by William P. Halperin [2018/06]
- Superconducting materials: Challenges and opportunities for large-scale applications by C. Yao and Y.-W. Ma [2021/06]
General: EXPERIMENTAL: Introductory:
- Magnetic levitation on a type-I superconductor as a practical demonstration experiment for students by Manuel Rodriguez Osorio et al. [2012/07]
General: MATHEMATICAL AND NUMERICAL METHODS:
- An introduction to quantum cluster methods by David Sénéchal [2008/06]
- Surprising Connections Between General Relativity and Condensed Matter by Gary T. Horowitz [2010/10]
- The conceptual heritage of superconductivity - from Meissner-Ochsenfeld to the Higgs Boson by Julius Ranninger [2012/07]
- The Memory Function Formalism: A Review by Komal Kumari and Navinder Singh [2017/11]
- Higgs Mode in Superconductors by Ryo Shimano and Naotso Tsuji [2019/06]
General: MODELS AND THEORIES: BCS; LONDON; t-j;
General: MODELS AND THEORIES: ELIASHBERG:
- Eliashberg Theory: A Short Review by F. Marsiglio [2019/11]
Types: HIGH TEMPERATURE; ORGANIC;
Type: AC/RF:
- AC/RF Superconductivity by G. Ciovati [2013/05]
Type: CHIRAL:
- Chiral Superconductors by Catherine Kallin and John Berlinsky [2015/12]
Type: WITH ANISOTROPIC PAIRS: Aspects: MAGNETISM: Luk'yanchuk and Zhitomirsky 95/08;
Type: CARBON-BASED:
- Carbon Based Superconductors by Reinhard K. Kremer et al. [2007/01]
Type: DISORDERED: QUANTUM: Fisher 98/06;
Type: ELECTRON-PHONON: Marsiglio and Carbotte 2001/06;
Type: FERROMAGNETIC:
- Properties of Ferromagnetic Superconductors by Dai Aoki et al. [2011/04]
- Ferromagnetism and Superconductivity in Uranium Compounds by Dai Aoki and Jacques Flouquet [2011/08]
Type: FILMS: Schakel 98/11;
- Fe-Based Superconducting Thin Films on Metallic Substrates: Growth, Characteristics and Relevant Properties by Kazumasa Iida et al. [Applied Physics Review 5, 031304 (2018)]
Type: HIGH-ENTROPY ALLOY:
- High Entropy Alloy Superconductors: Status, Opportunities and Challenges by Liling Sun and R. J. Cava [2019/07]
- Superconductivity in HEA-type compounds by Y. Mizuguchi and A. Yamashita [2021/02]
Type: HIGH PRESSURE:
- Recent Studies in Superconductivity at Extreme Pressures by James S. Schilling and James J. Hamlin [2007/09]
- Superconducting Hydrides under Pressure by Chris J. Pickard et al. [2019/09]
Type: HOLOGRAPHIC:
- Introduction to Holographic Superconductors by Gary T. Horowitz [2010/02]
- Introductory notes on holographic superconductors by Daniele Musso [2013/09]
Type: HYDRIDE:
- Superconducting Hydrides under Pressure by Chris J. Pickard et al. [2019/09]
Type: INHOMOGENEOUS: Casalbuoni 2003/05;
Type: INTERFACIAL:
- Interface superconductivity: History, development and prospects by Juan Pereiro et al. [2011/11]
Type: INTER-SITE PAIR:
- Inter-site pair superconductivity: origins and recent validation experiments by Dragan Mihailovic [2017/04]
Type: IRON BASED:
- Magnetism in Fe-based superconductors by M. D. Lumsden and A. D. Christianson [2010/04]
- Nematic orders in Iron-based superconductors by Jiangping Hu and Cenke Xu [2011/12]
- Brief review on iron-based superconductors: are there clues for unconventional superconductivity? by Hyungju Oh et al. [2011/12]
- Progress in wire fabrication of iron-based superconductors by Yanwei Ma [Supercond. Sci. Tech. 25, 113001 (2012)]
- Unconventional Superconductivity by Michael R. Norman [2013/02]
- Review of nuclear magnetic resonance studies on iron-based superconductors by Long Ma and Weiqiang Yu [Chin. Phys. B 22, 087414 (2013)]
- Magnetic interactions in iron superconductors: A review by E. Bascones et al. [2015/03]
- Antiferromagnetic order and spin dynamics in iron-based superconductors by Pengcheng Dai [2014/10]
- Recent advances in iron-based superconductors toward applications by Hideo Hosono et al. [2017/10]
- The Memory Function Formalism: A Review by Komal Kumari and Navinder Singh [2017/11]
- Fe-Based Superconducting Thin Films on Metallic Substrates: Growth, Characteristics and Relevant Properties by Kazumasa Iida et al. [Applied Physics Review 5, 031304 (2018)]
- Iron-based superconductors: Teenage, complex, challenging by Q.-M. Si and N. E. Hussey [2023/05]
Type: MAGNESIUM DIBORIDE:
- Superconductivity of magnesium diboride by Sergey L. Bud'ko and Paul C. Canfield [2015/01]
Type: MESOSCOPIC: Palacios 98/09;
Type: MESOSCOPIC: Re: MAGNETIZATION: Palacios 98/09;
Type: NICKEL BASED:
- Nickelate superconductors: An ongoing dialog between theory and experiments by A. S. Botana et al. [2020/12]
- Soft X-ray spectroscopy of low-valence nickelates by M. Hepting et al. [2021/11]
- A Nickleate Renaissance by J. F. Mitchell [2021/12]
Type: NITRIDE:
- The New Nitrides: Layered, Ferroelectric, Magnetic, Metallic and Superconducting Nitrides to Boost the GaN Photonics and Electronics Ecosystem by Debdeep Jena et al. [Japanese Journal of Applied Physics 58, SC0801 (2019)]
Type: ONE-DIMENSIONAL:
- Superconductivity in one dimension by K.Yu. Arutyunov et al. [2008/05]
Type: POROUS:
- Highly porous superconductors: Synthesis, research, and prospects by D. M. Gokhfeld et al. [2021/03]
Type: S + P WAVE INDUCED:
- Spin-helical transport in normal and superconducting topological insulators by Grigory Tkachov and E. M. Hankiewicz [2012/08]
Type: TOPOLOGICAL:
- Topological insulators and superconductors by Xiao-Liang Qi and Shou-Cheng Zhang [2010/08]
- Introduction to topological superconductivity and Majorana fermions by Martin Leijnse and Karsten Flensberg [2012/06]
- Majorana Qubits by Fabian Hassler [2014/04]
- Particle Physics and Condensed Matter: The Saga Continues by Frank Wilczek [2014/06]
- Superconducting doped topological materials by Satoshi Sasaki and Takeshi Mizushima [2015/02]
- Topological surface states in nodal superconductors by Andreas P. Schnyder and P. M. R. Brydon [2015/02]
- Topological Crystalline Insulators and Topological Superconductors: From Concepts to Materials by Yoichi Ando and Liang Fu [2015/01]
- Majorana Fermions and Topology in Superconductors by Masatoshi Sato and Satoshi Fujimoto [2016/01]
- Colloquium: Topological Band Theory by Arun Bansil et al. [2016/03]
- A road to reality with topological superconductors by C. W. J. Beenakker and L. P. Kouwenhoven i.e real-valued wave-functions [Nature Physics 12, 618 (2016)]
- Topological Superconductors by Masatoshi Sato and Yoichi Ando [2016/08]
- Emerging Trends in Topological Insulator and Topological Superconductor by Arijit Saha and Arun M. Jayannavar [2016/11]
- Exploring Topological Superconductivity in Topological Materials by Yupeng Li and Zhu-An Xu [Advanced Quantum Technologies 2019, 1800112 (2019)]
- Majorana Fermions in Magnetic Chains by Rémy Pawlak et al. [2019/09]
- Introduction to topological superconductivity and Majorana fermions for quantum engineers by S. Vishwakarma et al. [2023/06]
- Hunting for Majoranas by A. Yazdani et al. [2023/06]
Type: TWO DIMENSIONAL:
- Two-dimensional Superconductors with Atomic-Scale Thickness by Takashi Uchihashi [2016/08]
Aspects: MEISSNER-OCHSENFELD EFFECT; PHASE TRANSITIONS; PSEUDOGAPS; SQUIDS; VORTEX LATTICES;
Aspects: CIRCUITS:
- Atomic physics and quantum optics using superconducting circuits by J. Q. You and Franco Nori [Nature 474, 589 (2011)]
- Circuit QED - Lecture Notes by Nathan K. Langford [2013/10]
- The superconducting circuit companion: An introduction with worked examples by S. E. Rasmussen et al. [2021/03]
Aspects: COOLING:
- Cooling with Superfluid Helium by P. Lebrun and L. Tavian [2013/05]
Aspects: CRITICAL POINTS:
- Unconventional Quantum Critical Points by Cenke Xu [2012/02]
Aspects: HIGGS MODE:
- Higgs Mode in Superconductors by Ryo Shimano and Naotso Tsuji [2019/06]
Aspects: ISOTOPE EFFECTS: Bill et al. 98/01;
Aspects: ISOTOPE EFFECTS: Re: MAGNETIC IMPURITIES: Bill et al. 98/01;
Aspects: AS QUANTUM SYSTEMS:
- Atomic physics and quantum optics using superconducting circuits by J. Q. You and Franco Nori [Nature 474, 589 (2011)]
- New directions in the pursuit of Majorana fermions in solid state systems by Jason Alicea [2012/02]
- Microwave photonics with superconducting quantum circuits by Xiu Gu et al. [2017/07] 100 pp.
- The upside of noise: engineered dissipation as a resource in superconducting circuits by Eliot Kapit [Quantum Science and Technology 2, 033002 (2017)]
Aspects: QUASIPARTICLES: Volovik 97/11;
- New directions in the pursuit of Majorana fermions in solid state systems by Jason Alicea [2012/02]
Aspects: WAVES:
- Tkachenko waves by E. B. Sonin [2013/11]
Re: APPLICATIONS: POWER GENERATION: Rabinowitz 2003/02;
Re: AUGER SPECTROSCOPY: Verdozzi et al. 2000/11;
Re: AXIAL ANOMALY: Volovik 97/11;
Re: BARYOGENESIS (Analogy): Volovik 97/11;
Re: BROKEN SYMMETRY: Luk'yanchuk and Zhitomirsky, 95/01
Re: CAVITIES:
- Cavity types by Frank Gerigk [2010/06] Superconducting cavities (used in accelerators).
Re: COSMIC STRINGS (Analogy): Volovik 97/11;
Re: COSMOLOGY: Volovik 97/11;
Re: DECOHERENCE:
- Decoherence in Solid State Qubits by Luca Chirolli and Guido Burkard [Adv. in Phys. 57, 225 (2008)]
Re: DEFECTS: Nelson 95/02; Volovik 97/11;
- Defects in correlated metals and superconductors by H. Aloul et al. [2007/11]
Re: DISSIPATION:
- The upside of noise: engineered dissipation as a resource in superconducting circuits by Eliot Kapit [Quantum Science and Technology 2, 033002 (2017)]
Re: EXCITONS:
- Excitonic condensation in systems of strongly correlated electrons by Jan Kunes [Journal of Physics: Condensed Matter 27, 333201 (2015)]
Re: FIELD THEORY:
- A Rigorous Analysis of the Superconducting Phase of an Electron - Phonon System by Joel Feldman et al. [1995/03]
Re: FLUCTUATIONS: Larkin and Varlamov 2001/09;
Re: GOLDSTONE BOSONS: Burgess 98/08;
Re: GRAPHENE:
- Proximity coupling in superconductor-graphene heterostructures by Gil-Ho Lee and Hu-Jong Lee [2017/09]
Re: GRAVITATION: Langlois 2000/08;
Re: HEAVY FERMIONS;
Re: JOSEPHSON EFFECT:
- Josephson effect in Superconductors and Superfluids by Anna Posazhennikova [2009/08]
Re: LADDER MATERIALS: Dagotto and Rice 95/09;
Re: MAJORANA FERMIONS:
- Search for Majorana fermions in superconductors by C. W. J. Beenakker [2011/12]
- New directions in the pursuit of Majorana fermions in solid state systems by Jason Alicea [2012/02]
- Introduction to topological superconductivity and Majorana fermions by Martin Leijnse and Karsten Flensberg [2012/06]
- Majorana Qubits by Fabian Hassler [2014/04]
- Introduction to topological superconductivity and Majorana fermions for quantum engineers by S. Vishwakarma et al. [2023/06]
- Hunting for Majoranas by A. Yazdani et al. [2023/06]
Re: METAMATERIALS:
- The Physics and Applications of Superconducting Metamaterials by Steven M. Anlage [2010/04]
- Progress in Superconducting Metamaterials by Philipp Jung et al. [2014/03]
- Superconducting Metamaterials by Nikos Lazarides and G. P. Tsironis [2017/12]
Re: MOIRÉ MATERIALS:
- Superfluidity and quantum geometry in twisted multilayer systems by P. Törmä et al. [2021/11]
Re: NERNST EFFECT:
- Nernst effect in metals and superconductors: a review of concepts and experiments by Kamran Behnia and Hervé Aubin [Rep. Prog. Phys. 79, 046502 (2016)]
Re: NEUTRON STARS:
- Superfluidity and Superconductivity in Neutron Stars by Nicolas Chamel [Journal of Astrophysics and Astronomy 38, 43 (2017)]
- Superfluidity and Superconductivity in Neutron Stars by Brynmor Haskell and Armen Sedrakian [2017/09]
Re: NUCLEAR MAGNETIC RESONANCE:
- NMR in strongly correlated materials by Henri Alloul [2015/05]
Re: PHASE TRANSITIONS: MAGNETIC: Sachdev 95/08;
Re: PRIMORDIAL MAGNETIC FIELD (Analogy): Volovik 97/11;
Re: QUANTUM CHROMODYNAMICS: Casalbuoni 2003/05;
- Lecture Notes on Superconductivity: Condensed Matter and QCD by Roberto Casalbuoni [2003/12]
Re: QUANTUM GEOMETRY:
- Superfluidity and quantum geometry in twisted multilayer systems by P. Törmä et al. [2021/11]
Re: QUANTUM WIRES:
- Superconductivity in one dimension by K.Yu. Arutyunov et al. [2008/05]
Re: RENORMALIZATION GROUP: Froehlich et al. 95/08b;
Re: SO(5): NET ADVANCE SPECIAL BIBLIOGRAPHY Melikidze 2000/01; Burgess 98/08;
Re: SHOT NOISE:
- Shot noise in mesoscopic systems: From single particles to quantum liquids by K. Kobayashi and M. Hashisaka [2021/10]
Re: SPINTRONICS:
- Superconducting Spintronics by Jacob Linder and Jason W. A. Robinson [Nature Physics 11, 307 (2015)]
Re: STARS: COMPACT:
- Nuclear Superconductivity in Compact Stars: BCS Theory and Beyond by Armen Sedrakian and John W. Clark [2006/07]
Re: STRIPES:
- Superstripes : superconductivity in complex granular striped matter by Antonio Bianconi et al. [2012/07]
- Superstripes in the Low Energy Physics of Complex Quantum Matter at the Mesoscale by Antonio Bianconi [2015/03]
Re: SUPERFLUIDS:
- Superfluids and Superconductors: An Eighty Year Perspective by William P. Halperin [2018/06]
Re: SYMMETRIC SPACES:
- Of symmetries, symmetry classes, and symmetric spaces: from disorder and quantum chaos to topological insulators by Martin R. Zirnbauer [Physik Journal 11, 41 (2012)]
Re: THERMODYNAMICS:
- Maxwell's Demon in Superconducting Circuits by Nathanaël Cottet and Benjamin Huard [2018/05]
Re: TIME REVERSAL INVARIANCE:
- Time Reversal Symmetry Breaking Superconductors by Karol Izydor Wysokiński [2019/03]
- Recent progress on superconductors with time-reversal symmetry breaking by S. K. Ghosh et al. [2020/03]

THE NET ADVANCE OF PHYSICS