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Class-Specific Blind Deconvolutional Phase Retrieval Under a Generative Prior

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arxiv 2002.12578 v1 pith:OJJ6R5U5 submitted 2020-02-28 eess.IV cs.CVcs.LGeess.SPstat.ML

classification eess.IVcs.CVcs.LGeess.SPstat.ML
keywords problemalgorithmblurgenerativeimageimagingmeasurementproposed
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In this paper, we consider the highly ill-posed problem of jointly recovering two real-valued signals from the phaseless measurements of their circular convolution. The problem arises in various imaging modalities such as Fourier ptychography, X-ray crystallography, and in visible light communication. We propose to solve this inverse problem using alternating gradient descent algorithm under two pretrained deep generative networks as priors; one is trained on sharp images and the other on blur kernels. The proposed recovery algorithm strives to find a sharp image and a blur kernel in the range of the respective pre-generators that \textit{best} explain the forward measurement model. In doing so, we are able to reconstruct quality image estimates. Moreover, the numerics show that the proposed approach performs well on the challenging measurement models that reflect the physically realizable imaging systems and is also robust to noise

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  1. Landscape Analysis of Simultaneous Blind Deconvolution and Phase Retrieval via Structured Low-Rank Tensor Recovery

    eess.SP 2025-09 conditional novelty 5.0 of 10

    For a simplified tensor-sensing surrogate of the BDPR problem, the population risk has only benign critical points and Riemannian gradient descent converges linearly under a restricted-isometry condition.

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