稀土镍酸盐:金属绝缘相变与超导性质

doi:10.12066/j.issn.1007-2861.2577

Abstract

Abstract: A comprehensive introduction was provided to the basic structure and properties of rare earth nickelates, offering an in-depth summary of their metal-insulator transition (MIT) characteristics as well as the regulation of the MIT process by epitaxial strain, film thickness, and chemical doping. In addition, research on hydrogen-induced phase transition in nickelates was discussed, and a systematic reference was provided to understand and regulate the MIT. Furthermore, the superconductivity of nickelates was reviewed, and it included the exploration of superconductivity in this system and the research progress on La₃Ni₂O₇ superconductors. The summarized research on nickel-based superconductors not only contributed to the acceleration of the exploration of novel superconducting materials but also held significant research value in its uncovering of the mechanisms of high-temperature superconductivity.

Key words: rare earth nickelate, metal-insulation transition (MIT), hydrogenated rare earth nickelate, nickel-based superconductivity

CLC Number:

O511

LI Minjuan, CHEN Mingyao, YIN Xinmao, CAI Chuanbing. Rare earth nickelates: metal-insulator transition and superconducting properties[J]. Journal of Shanghai University（Natural Science Edition）, 2026, 32(1): 17-32.

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Rare earth nickelates: metal-insulator transition and superconducting properties

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