Current Control of Structural and Physical Properties in Spin-Orbit- Coupled Mott Insulators

G. Cao, L. DeLong
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Abstract

Electrical current as a means to control structural and related physical properties has been recognized only recently. The application of small electrical currents in sensitive detector and control applications, and in information technologies, is often preferable to other external stimuli. However, until recently it has not been widely accepted that electrical current can readily couple to the lattice, orbital, and spin degrees of freedom. Mounting experimental evidence has indicated that a combination of strong spin-orbit interactions and a distorted crystal structure in magnetic Mott insulators may be sufficient for electrical current to control structural and related properties. Current control of quantum states in 4d- and 5d-transition metal oxides has therefore rapidly expanded as a key research topic. This chapter presents two model systems, Ca2RuO4 and Sr2IrO4, in which applied current effectively controls the lattice, and thus the physical properties.
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自旋-轨道耦合Mott绝缘子结构和物理特性的电流控制
电流作为一种控制结构和相关物理性质的手段直到最近才被认识到。在敏感的检测器和控制应用以及信息技术中,小电流的应用往往比其他外部刺激更可取。然而,直到最近,电流可以很容易地与晶格、轨道和自旋自由度耦合的观点还没有被广泛接受。越来越多的实验证据表明,在磁性莫特绝缘体中,强自旋轨道相互作用和扭曲晶体结构的结合可能足以使电流控制结构和相关特性。因此,4d和5d过渡金属氧化物中量子态的电流控制迅速成为一个重要的研究课题。本章介绍了Ca2RuO4和Sr2IrO4两种模型体系,其中外加电流有效地控制了晶格,从而控制了物理性质。
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Single-Crystal Synthesis Lattice-Driven Ruthenates Spin-Orbit Interactions in Ruddlesden-Popper Phases Srn+1IrnO3n+1 (n = 1, 2, and ∞) Current Control of Structural and Physical Properties in Spin-Orbit- Coupled Mott Insulators
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