Iron-based superconductors : materials, properties, and mechanisms
Iron-based superconductors : materials, properties, and mechanisms
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DOI：
10.1201/b13727
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发表时间：
2012-11
期刊：
影响因子：
--
通讯作者：
Nanlin Wang;H. Hosono;P. Dai
中科院分区：
文献类型：
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作者：
Nanlin Wang;H. Hosono;P. Dai
铁基超导体：材料的发现和进展细野秀夫引言母体材料的发现和进展简史母体材料的晶体结构母体材料和超导性FeSC单晶薄膜的独特特性概述和相关的新超导体新钾铁硒化物超导体R. Hu，E. D. Mun，D. H.瑞安，K。周，H。Kim，H.霍多瓦涅茨湾E.施特拉斯海姆湾A.塔纳塔尔河Prozorov，W. N. Rowan-Weetaluktuk，J. M. Cadogan，M.M.阿尔塔劳奈角H. Mielke，V. S. Zapf，S. L. Budko和P.C.坎菲尔德介绍实验方法晶体生长和K0.80Fe1.76Se2单晶的化学计量物理性质总结铁磷属元素化物的角分辨光电子能谱Takafumi Sato，Pierre Richard，Kosuke Nakayama，Takashi Takahashi，and Hong Ding介绍实验结果总结性评论和总结铁磷属元素化物超导体中的量子振荡Suchitra E.塞巴斯蒂安量子振荡磁场依赖性温度依赖性磷属铁族化合物超导体反铁磁性母体磷属铁族化合物中的量子振荡过掺杂顺磁性磷属铁族化合物铜酸盐和磷属铁族化合物中的量子振荡：电子结构比较结论铁基超导体的光学研究王南林和陈志国引言固体的光学性质介绍母体化合物的光学研究Fe-磷族化合物/硫族化合物光学电导率电子关联的组分与扩展Drude模型分析铁基超导体的各向异性电荷动力学低于Tc的铁基超导体的光学性质基于超导体李世良和戴鹏程引言母体化合物的反铁磁性超导态的磁激发正常态的磁激发结论综述关于铁基超导体的NMR研究的介绍NMR基础关于铁基超导体的NMR实验结果概述材料特定模型哈密顿量和配对机制的分析黑木和彦介绍模型哈密顿量构造自旋涨落和反铁磁性超导材料依赖性结论和展望铁基超导体的反铁磁性相：一个巡回的方法约翰内斯诺勒和伊利亚Eremin介绍一个引物：多轨道系统中铁磷族化合物自旋波的单带Hubbard模型磁序讨论与结论铁基超导体母体化合物的磁性基于超导理论模型的电子向列性及晶格、自旋和轨道相互作用的讨论
Iron-Based Superconductors: Discovery and Progress in Materials Hideo Hosono Introduction Small History on Discovery and Progress in Parent Materials Crystal Structure of Parent Materials Parent Material and Superconductivity Unique Characteristics of FeSCs Single Crystal Thin Film Summary and Relevant New Superconductors Synthesis and Physical Properties of the New Potassium Iron Selenide Superconductor R. Hu, E. D. Mun, D. H. Ryan, K. Cho, H. Kim, H. Hodovanets, W. E. Straszheim, M. A. Tanatar, R. Prozorov, W. N. Rowan-Weetaluktuk, J. M. Cadogan, M.M. Altarawneh, C. H. Mielke, V. S. Zapf, S. L. Budko, and P. C. Canfield Introduction Experimental Methods Crystal Growth and Stoichiometry Physical Properties of Single Crystals of K0.80Fe1.76Se2 Summary Angle-Resolved Photoemission Spectroscopy of Iron Pnictides Takafumi Sato, Pierre Richard, Kosuke Nakayama, Takashi Takahashi, and Hong Ding Introduction Experimental Results Concluding Remarks and Summary Quantum Oscillations in Iron Pnictide Superconductors Suchitra E. Sebastian Quantum Oscillations Magnetic Field Dependence Temperature Dependence Iron Pnictide Superconductors Quantum Oscillations in Antiferromagnetic Parent Iron Pnictides Quantum Oscillations in Overdoped Paramagnetic Iron Pnictides Cuprates and Iron Pnictides: Electronic Structure Comparison Conclusion Optical Investigation on Iron-Based Superconductors Nan-LinWang and Zhi-Guo Chen Introduction Introduction About Optical Properties of Solids Optical Studies on the Parent Compounds Multi-Components vs. Extended Drude Model Analysis of Optical Conductivity Electron Correlations in the Fe-Pnictides/Chalcogenides Anisotropic Charge Dynamics Optical Properties of Iron-Based Superconductors Below Tc Antiferromagnetic Spin Fluctuations in the Fe-Based Superconductors Shiliang Li and Pengcheng Dai Introduction Antiferromagnetism in Parent Compounds Magnetic Excitations in the Superconducting State Magnetic Excitations in the Normal State Conclusion Review of NMR Studies on Iron-Based Superconductors Kenji Ishida and Yusuke Nakai Introduction NMR Basics NMR Experimental Results on Iron-Based Superconductors Summary Material Specific Model Hamiltonians and Analysis on the Pairing Mechanism Kazuhiko Kuroki Introduction Model Hamiltonian Construction Spin Fluctuations and Antiferromagnetism Superconductivity Material Dependence Concluding Remarks and Perspectives The Antiferromagnetic Phase of Iron-Based Superconductors: An Itinerant Approach Johannes Knolle and Ilya Eremin Introduction A Primer: Single-Band Hubbard Model Magnetic Order in Ferropnictides SpinWaves in Itinerant Multiorbital Systems Discussion and Conclusion Magnetism in Parent Compounds of Iron-Based Superconductors Jiangping Hu Introduction Experimental Results on the Parent Compounds of Iron-Based Superconductors Theoretical Models Electronic Nematism and the Interplay Between Lattice, Spin and Orbital Discussion