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This research demonstrates a novel adaptive optics strategy using entangled photon pairs to retrieve aberrations directly, significantly reducing measurement cycles in high-resolution microscopy. By leveraging spatial correlations as an aberration-sensitive metric, the method overcomes limitations of conventional iterative optimization where temporal windows or photon budgets are constrained. This approach establishes an efficient framework for quantum-enhanced imaging in regimes where classical correction strategies become prohibitive.
Computational aberration-retrieval with entangled photons
arXiv:2609.31049v1 Announce Type: new Abstract: Adaptive optics (AO) is central to high-resolution microscopy, yet conventional implementations often require repeated correction-and-measurement cycles whose number increases with aberration complexity. This measurement burden can become prohibitive when the available temporal window for correction is short or when photon budgets are constrained. Here, we demonstrate an AO strategy that exploits the spatial correlations of entangled photon pairs to retrieve aberrations directly. By using the second-order correlation function as an aberration-sensitive metric, the required correction can be determined with only a few measurements, without relying on image-based feedback or iterative optimization. This correlation-based approach establishes an efficient framework for AO leveraging quantum light, offering a new route toward quantum-enhanced microscopy in regimes where conventional correction strategies become challenging.
Abstract:Adaptive optics (AO) is central to high-resolution microscopy, yet conventional implementations often require repeated correction-and-measurement cycles whose number increases with aberration complexity. This measurement burden can become prohibitive when the available temporal window for correction is short or when photon budgets are constrained. Here, we demonstrate an AO strategy that exploits the spatial correlations of entangled photon pairs to retrieve aberrations directly. By using the second-order correlation function as an aberration-sensitive metric, the required correction can be determined with only a few measurements, without relying on image-based feedback or iterative optimization. This correlation-based approach establishes an efficient framework for AO leveraging quantum light, offering a new route toward quantum-enhanced microscopy in regimes where conventional correction strategies become challenging.
Quantum Physics (quant-ph); Optics (physics.optics)
arXiv:2609.31049 [quant-ph]
(or arXiv:2609.31049v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2609.31049 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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