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This research demonstrates a breakthrough in quantum-enhanced imaging by reconstructing images of dim objects through dynamic scattering media using fewer than one photon per pixel. The study leverages advanced data processing and photon-number-resolving detection to overcome limitations imposed by light absorption and time-varying turbulence, with direct applications in biomedicine and astronomy.
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Low Photon Number Non-Invasive Imaging Through Time-Varying Diffusers

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2409.18072v3 Announce Type: replace-cross Abstract: Optical imaging plays a crucial role in advancing science and technology, enabling applications in fields ranging from biomedicine to astronomy. However, imaging through scattering media such as biological tissues, fog, or turbulent atmosphere remains a major challenge. Light scattering and absorption in such media make imaging challenging; in the case of time-varying scatterers and low light regime imaging of incoherent objects has not been demonstrated so far. We present the first demonstration of such non-invasive imaging of dim objects hidden behind dynamic scattering layers, obtaining robust reconstruction even at extremely low photon counts per frame. We achieve this by developing a new data-processing approach. In our experiment, we utilize a photon number resolving camera to capture a sequence of frames, containing on average, fewer than one photon per pixel. We validate our approach in microscopy, where we reconstruct images of biological samples stained with standard fluorescent dyes. Beyond microscopy, our approach can be applied in different imaging techniques, such as endoscopy based on multicore fibers or ground-based astronomical observations.

Abstract:Optical imaging plays a crucial role in advancing science and technology, enabling applications in fields ranging from biomedicine to astronomy. However, imaging through scattering media such as biological tissues, fog, or turbulent atmosphere remains a major challenge. Light scattering and absorption in such media make imaging challenging; in the case of time-varying scatterers and low light regime imaging of incoherent objects has not been demonstrated so far. We present the first demonstration of such non-invasive imaging of dim objects hidden behind dynamic scattering layers, obtaining robust reconstruction even at extremely low photon counts per frame. We achieve this by developing a new data-processing approach. In our experiment, we utilize a photon number resolving camera to capture a sequence of frames, containing on average, fewer than one photon per pixel. We validate our approach in microscopy, where we reconstruct images of biological samples stained with standard fluorescent dyes. Beyond microscopy, our approach can be applied in different imaging techniques, such as endoscopy based on multicore fibers or ground-based astronomical observations.

Optics (physics.optics); Biological Physics (physics.bio-ph); Quantum Physics (quant-ph)

arXiv:2409.18072 [physics.optics]

(or arXiv:2409.18072v3 [physics.optics] for this version)

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