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Investigation of growth characteristics and semimetal-semiconductor transition of polycrystalline bis-muth thin films

The preferred orientation growth characteristics and surface roughness of polycrystalline bis-muth (Bi) thin films fabricated on glass substrates using the molecular beam epitaxy method were investigated at temperatures ranging from 18 to 150°C. The crystallization and morphology were analyzed in de...

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Published in:IUCrJ 2020-01, Vol.7 (Pt 1), p.49-57
Main Authors: Wang, Nan, Dai, Yu-Xiang, Wang, Tian-Lin, Yang, Hua-Zhe, Qi, Yang
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Dai, Yu-Xiang
Wang, Tian-Lin
Yang, Hua-Zhe
Qi, Yang
description The preferred orientation growth characteristics and surface roughness of polycrystalline bis-muth (Bi) thin films fabricated on glass substrates using the molecular beam epitaxy method were investigated at temperatures ranging from 18 to 150°C. The crystallization and morphology were analyzed in detail and the polycrystalline metal film structure-zone model (SZM) was modified to fit the polycrystalline Bi thin film. The boundary temperature between Zone T and Zone II in the SZM shifted to higher temperatures with the increase in film thickness or the decrease of growth rate. Furthermore, the effect of the thickness and surface roughness on the transport properties was investigated, especially for Bi thin films in Zone II. A two-transport channels model was adopted to reveal the influence of the film thickness on the competition between the metallic surface states and the semiconducting bulk states, which is consistent with the results of Bi single-crystal films. Therefore, the polycrystalline Bi thin films are expected to replace the single-crystal films in the application of spintronic devices.
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subjects Bismuth
Crystallization
Film thickness
Glass substrates
Investigations
Molecular beam epitaxy
Polycrystals
Preferred orientation
Research Papers
Single crystals
Surface roughness
Thin films
Transport properties
title Investigation of growth characteristics and semimetal-semiconductor transition of polycrystalline bis-muth thin films
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