Recent progress on PbTe Majorana nanowires

None Yang Shuai, None Zhang Hao, None He Ke
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Abstract

Semiconductor-superconductor hybrid nanowire is one of the major platforms for realizing Majorana zero modes (MZMs) and topological quantum computing (TQC), and the III-V InAs and InSb-based nanowires are the most-studied materials in this approach. Despite years of efforts on material improvement and optimization, the too many defects and impurities in the nanowire samples remain the central problem hindering the research progress in the direction. In recent years, a new candidate Majorana nanowire system— IV-VI semiconductor PbTe-superconductor hybrid nanowire—have attracted much attention and witnessed rapid research progress. The unique advantages of PbTe-based nanowires, such as the large dielectric constant and the existence of a lattice-matched substrate, grant them great potential in overcoming the bottleneck problem of sample defects and impurities and becoming an ideal platform to study MZMs and TQC. In this paper, we briefly introduce the recent research progress on selective area growth and transport characterization of in-plane PbTe nanowires and PbTe-superconductor hybrid nanowires, and discuss the advantages and problems of the new candidate Majorana nanowire system, as well as the prospective of realizing TQC based on it.
PbTe Majorana纳米线的研究进展
半导体-超导混合纳米线是实现马约拉纳零模式(MZMs)和拓扑量子计算(TQC)的主要平台之一,其中III-V InAs和insb基纳米线是该方法中研究最多的材料。尽管经过多年的材料改进和优化,但纳米线样品中缺陷和杂质过多仍然是阻碍研究方向进展的核心问题。近年来,一种新的马约拉纳纳米线候选体系——ⅳ-ⅵ半导体pbte -超导杂化纳米线备受关注,研究进展迅速。pbte基纳米线具有较大的介电常数和晶格匹配衬底等独特优势,这使其在克服样品缺陷和杂质等瓶颈问题方面具有很大的潜力,成为研究MZMs和TQC的理想平台。本文简要介绍了平面内PbTe纳米线和PbTe-超导体混合纳米线的选择性面积生长和输运特性的最新研究进展,讨论了新型候选Majorana纳米线系统的优点和存在的问题,以及基于该系统实现TQC的前景。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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