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Detection of radio-frequency field with a single spin in diamond
  • 时间:0
  • 分类:O413.1[理学—理论物理;理学—物理] U463.341[机械工程—车辆工程;交通运输工程—载运工具运用工程;交通运输工程—道路与铁道工程]
  • 作者机构:Hefei National Laboratory for Physical Sciences at theMicroscale, Department of Modem Physics, University ofScience and Technology of China, Hefei 230026, China
  • 相关基金:Acknowledgments This work was supported by the National Basic Research Program of China (2013CB921800), the National Natural Science Foundation of China (11227901 and 31470835), the Chinese Academy of Sciences (XDB01030400), and the Fundamental Research Funds for the Central Universities (WK2340000064).
中文摘要:

Detection of a.c. magnetic field is consequential for many developments in physical and biological sciences,and various designs of magnetometer have been proposed recently. However, the large size of sensor and the extreme measurement conditions required strongly limit their application. It remains a challenge to reconstruct the vector of a.c. field with nanoscale spatial resolution using a single spin under ambient conditions. In this work, we choose the radio-frequency(RF) field as a typical case and realize the measurement of RF field based on a nitrogen-vacancy(NV)center in diamond. We build a solid sensor through measuring the effect of RF field on NV electron spin energy levels and the transition between them. Both of the phase and amplitude(including the transverse and longitudinal components) are measured by this new approach.

英文摘要:

Detection of a.c. magnetic field is consequential for many developments in physical and biological sciences, and various designs of magnetometer have been proposed recently. However, the large size of sensor and the extreme measurement conditions required strongly limit their application. It remains a challenge to reconstruct the vector of a.c. field with nanoscale spatial resolution using a single spin under ambient conditions. In this work, we choose the radio-frequency (RF) field as a typical case and realize the measurement of RF field based on a nitrogen-vacancy (NV) center in diamond. We build a solid sensor through mea- suring the effect of RF field on NV electron spin energy levels and the transition between them. Both of the phase and amplitude (including the transverse and longitudinal components) are measured by this new approach.

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