Quantum temperature sensor based on superradiant phase-transition

A. Bazhenov, A. Alodjants
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引用次数: 1

Abstract

We study superradiant phase transition (SPT) phenomena for high-precision quantum thermometry applications in bio-photonics. Comprehensive thermodynamic properties of quantum thermo-sensor that exploits two thermodynamically distinguishable states of N inhomogeneously broadened two-level quantum systems (TLSs) interacting with a quantized electromagnetic field in the cavity are elucidated. We fully describe superradiant field amplitude (cavity photon number) that represents the order parameter and exhibits the second order phase transition, which can be used for initialization of operating regimes in temperature sensorics. Temperature sensitivity and temperature accuracy is analyzed in the framework of quantum estimation theory. Scaling for standard quantum limit (SQL), up to Heisenberg limit for temperature estimation is predicted.
基于超辐射相变的量子温度传感器
我们研究了超辐射相变(SPT)现象在生物光子学中高精度量子测温中的应用。利用N个非均匀展宽双能级量子系统(TLSs)与腔内量子化电磁场相互作用的两种热力学可区分态,阐述了量子热传感器的综合热力学性质。我们充分描述了代表序参量的超辐射场振幅(腔光子数),并展示了二阶相变,可用于温度传感器工作状态的初始化。在量子估计理论的框架下对温度灵敏度和温度精度进行了分析。从标准量子极限(SQL)到温度估计的海森堡极限进行了预测。
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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