AI 中文总结
本文综述量子比特及相关量子技术在类波暗物质探测中的应用，介绍其基本性质、相关理论框架及量子传感核心概念，探讨提升暗物质探测灵敏度的可能途径。
AI 中文摘要
本文为有意探索量子比特及其他量子激发在暗物质（及超出标准模型的其他物理现象）探测中应用的读者提供入门综述。涵盖主题包括量子比特的基本性质、暗物质感应电场引发量子比特激发的机制（重点关注暗物质相干性的影响）、由Jaynes-Cummings框架建模的耦合量子比特-腔系统的动力学，以及噪声与退相干（尤其是由Lindblad方程描述的马尔可夫噪声）的影响。此外，文章介绍量子传感的核心概念，包括算子和表示、正算子值测度、克拉美罗下界、标准量子极限与海森堡极限，以及利用纠缠态实现的暗物质探测灵敏度潜在提升。全文重点讨论这些主题在类波暗物质探测中的应用。
英文摘要
An introductory review is provided for those who are interested in exploring applications of qubits and other quantum excitations to the detection of dark matter (and any other physics beyond the Standard Model). Topics covered include the fundamental properties of qubits, the excitation mechanism of qubits due to the electric field induced by dark matter (with attention to the effects of the coherence of dark matter), the dynamics of coupled qubit-cavity systems modeled by the Jaynes-Cummings framework, and the influence of noise and decoherence (especially Markovian noise described by the Lindblad equation). In addition, the article introduces essential concepts in quantum sensing, including the operator-sum representation and positive operator-valued measures, the Cramér-Rao bound, the standard quantum limit and the Heisenberg limit, and the potential enhancement of sensitivity to dark matter achievable with entangled states. Throughout, these topics are discussed with particular emphasis on their application to the detection of wave-like dark matter.
Comments112 pages, 18 figures
