AI 中文总结
研究将合成光学全息术概念扩展到量子领域，在量子未检测光成像中实现量子扫描合成光学全息术，通过集成受控合成相位载波，能在可见波长检测下获取中红外光子探测物体的振幅和相位图像，为无标记MIR相位成像开辟新途径。
AI 中文摘要
合成光学全息术（SOH）将全息重建引入扫描光学显微镜，实现了通过顺序采集和点检测进行定量相位成像。本文将这一概念扩展到量子领域，在量子未检测光成像（QIUL）中实现SOH。通过将受控合成相位载波集成到扫描QIUL实现中，在仅检测中红外（MIR）光子的可见伴光子时，检索被MIR光子探测物体的振幅和相位图像。在二元、透明和生物样品上演示了该方法，展示了扫描量子成像系统中的复场重建。该方法将空间分辨率与光子对空间相关性解耦，为可见波长检测的衍射极限、无标记MIR相位成像开辟了道路。
英文摘要
Synthetic optical holography (SOH) introduced holographic reconstruction into scanning optical microscopy, enabling quantitative phase imaging with sequential acquisition and point detection. Here, we extend this concept to the quantum regime by implementing SOH within quantum imaging with undetected light (QIUL). By integrating a controlled synthetic phase carrier into a scanning QIUL implementation, we retrieve amplitude and phase images of objects probed by mid-infrared (MIR) photons while detecting only their visible partners. We demonstrate the method on binary, transparent, and biological samples, showing complex-field reconstruction in a scanning quantum imaging system. This approach decouples spatial resolution from photon-pair spatial correlations and establishes a route toward diffraction-limited, label-free MIR phase imaging with visible-wavelength detection.
