论文标题
部分可观测时空混沌系统的无模型预测
Structured light analogy of squeezed state
论文作者
论文摘要
对结构光的控制对于探索基本的物理效应并扩展了实用的科学应用至关重要,这已经通过接受量子光学的方法来提出 - 许多经典的外来量子态的经典类比都是使用结构化模式设计的。但是,现行的量子样结构模式受离散状态的限制,其中模式索引类似于光子数状态。然而,除离散状态外,在结构化光的领域还需要探索广泛的量子状态 - 连续变量(CV)状态。作为CV状态的典型例子,挤压状态在高敏性干涉仪和重力波检测中起着重要作用。在这项工作中,我们将两个看似不同的物理分支汇总在一起,即经典的结构光和量子挤压状态。我们提出了挤压状态(厚)的结构化光类比,在用量子挤压状态超过标准量子极限(SQL)的过程之后,它可以打破空间极限。这项工作为从CV量子状态采用结构化光的方法铺平了道路,开辟了CV纠缠,传送,传送,经典和量子信息的新研究方向的结构化光线。
Control of structured light is of great importance to explore fundamental physical effects and extend practical scientific applications, which has been advanced by accepting methods of quantum optics - many classical analogies of exotic quantum states were designed using structured modes. However, the prevailing quantum-like structured modes are limited by discrete states where the mode index is analog to the photon number state. Yet, beyond discrete states, there is a broad range of quantum states to be explored in the field of structured light -- continuous-variable (CV) states. As a typical example of CV states, squeezed state plays a prominent role in high-sensitivity interferometry and gravitational wave detection. In this work, we bring together two seemingly disparate branches of physics, namely, classical structured light and quantum squeezed state. We propose the structured light analogy of squeezed state (SLASS), which can break the spatial limit following the process of surpassing the standard quantum limit (SQL) with quantum squeezed states. This work paves the way for adopting methods from CV quantum states into structured light, opening new research directions of CV entanglement, teleportation, classical and quantum informatics of structured light in the future.