Title : Quantum Well States for Graphene Spin-Texture Engineering.

Pub. Date : 2020 Feb 20

PMID : 32013453






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1 Quantum Well States for Graphene Spin-Texture Engineering. Graphite spindlin 1 Homo sapiens
2 The modification of graphene band structure, in particular via induced spin-orbit coupling, is currently a great challenge for the scientific community from both a fundamental and applied point of view. Graphite spindlin 1 Homo sapiens
3 We reveal that for the gr/Pd/Ir(111) intercalated system, a spin splitting of graphene pi states higher than 200meV is present near the graphene K point. Graphite spindlin 1 Homo sapiens
4 We reveal that for the gr/Pd/Ir(111) intercalated system, a spin splitting of graphene pi states higher than 200meV is present near the graphene K point. Graphite spindlin 1 Homo sapiens
5 We reveal that for the gr/Pd/Ir(111) intercalated system, a spin splitting of graphene pi states higher than 200meV is present near the graphene K point. Graphite spindlin 1 Homo sapiens
6 This spin-separation arises from the hybridization of the graphene valence band states with spin-polarized quantum well states of a single Pd layer on Ir(111). Graphite spindlin 1 Homo sapiens
7 Our results demonstrate that the proposed approach on the tailoring of the dimensionality of heavy materials interfaced with a graphene layer might lead to a giant spin-orbit splitting of the graphene valence band states. Graphite spindlin 1 Homo sapiens
8 Our results demonstrate that the proposed approach on the tailoring of the dimensionality of heavy materials interfaced with a graphene layer might lead to a giant spin-orbit splitting of the graphene valence band states. Graphite spindlin 1 Homo sapiens