Exfoliation of single layer BiTeI flakes

Spin orbit interaction can be strongly boosted when a heavy element is embedded into an inversion asymmetric crystal field. A simple structure to realize this concept in a 2D crystal contains three atomic layers, a middle one built up from heavy elements generating strong atomic spin-orbit interacti...

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Veröffentlicht in:arXiv.org 2017-09
Hauptverfasser: Fülöp, Bálint, Tajkov, Zoltán, Pető, János, Kun, Péter, Koltai, János, Oroszlány, László, Tóvári, Endre, Murakawa, Hiroshi, Tokura, Yoshinori, Bordács, Sándor, Tapasztó, Levente, Csonka, Szabolcs
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creator Fülöp, Bálint
Tajkov, Zoltán
Pető, János
Kun, Péter
Koltai, János
Oroszlány, László
Tóvári, Endre
Murakawa, Hiroshi
Tokura, Yoshinori
Bordács, Sándor
Tapasztó, Levente
Csonka, Szabolcs
description Spin orbit interaction can be strongly boosted when a heavy element is embedded into an inversion asymmetric crystal field. A simple structure to realize this concept in a 2D crystal contains three atomic layers, a middle one built up from heavy elements generating strong atomic spin-orbit interaction and two neighboring atomic layers with different electron negativity. BiTeI is a promising candidate for such a 2D crystal, since it contains heavy Bi layer between Te and I layers. Recently the bulk form of BiTeI attracted considerable attention due to its giant Rashba interaction, however, 2D form of this crystal was not yet created. In this work we report the first exfoliation of single layer BiTeI using a recently developed exfoliation technique on stripped gold. Our combined scanning probe studies and first principles calculations show that SL BiTeI flakes with sizes of 100 \(\mu\)m were achieved which are stable at ambient conditions. The giant Rashba splitting and spin-momentum locking of this new member of 2D crystals open the way towards novel spintronic applications and synthetic topological heterostructures.
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subjects Crystal structure
Exfoliation
First principles
Flakes
Gold
Heavy elements
Heterostructures
Locking
Physics - Mesoscale and Nanoscale Physics
Spin-orbit interactions
title Exfoliation of single layer BiTeI flakes
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