Fabrication and Application of Nano-SQUID Magnetometer to Scanning Imaging of Two-Dimensional Quantum Materials

Bingke Xiang;Yihua Wang;Hao Li;Shane A. Cybart
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Abstract

Superconducting quantum interference devices (SQUIDs) are directly sensitive to magnetic flux. Nano-fabricated SQUID chip with miniaturized superconducting circuits can be further utilized as scanning probes for imaging of materials. Scanning SQUID microscopy (SSM) combines both high spatial resolution and high magnetic field sensitivity and is especially suitable for studying low dimensional materials with small sensing volumes. Here, we briefly review the fabrication of different types of nano-SQUIDs and the recent progress of utilizing them for scanning microscopy of quantum materials. We focus on but are not limited to topological states, unconventional superconductivity and exotic magnetism with a particular interest in two-dimensional materials. The magnetometry, susceptometry and current imaging modes of the SSM coupled with the external tuning of the material by magnetic field, electrical field gating and strain reveals a multitude of information beyond the scopes of charge-sensing probes.
纳米 SQUID 磁力计的制造及在二维量子材料扫描成像中的应用
超导量子干涉装置(SQUID)对磁通量直接敏感。带有微型超导电路的纳米 SQUID 芯片可进一步用作材料成像的扫描探针。扫描 SQUID 显微镜(SSM)结合了高空间分辨率和高磁场灵敏度,特别适合研究传感体积小的低维材料。在此,我们简要回顾了不同类型纳米 SQUID 的制造以及利用它们进行量子材料扫描显微镜研究的最新进展。我们关注但不限于拓扑态、非常规超导和奇异磁性,尤其是二维材料。通过磁场、电场门控和应变对材料进行外部调谐,SSM 的磁力测量、共振测量和电流成像模式揭示了电荷感应探针范围之外的大量信息。
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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