Super Resolved Imaging with Adaptive Optics
Robin Swanson, Esther Y. H. Lin, Masen Lamb, Suresh Sivanandam, and Kiriakos N. Kutulakos

TL;DR
This paper introduces a computational imaging method that leverages adaptive optics in ground-based telescopes to achieve super-resolution images without hardware modifications, by applying learned distortions and joint upsampling.
Contribution
It presents a novel approach combining adaptive optics and learned distortions with end-to-end optimization for super-resolution imaging in telescopes.
Findings
Achieved up to 12 dB SNR improvement over non-AO methods.
Demonstrated effectiveness with hardware prototype and simulations.
Method can be transferred to operational telescopes.
Abstract
Astronomical telescopes suffer from a tradeoff between field of view (FoV) and image resolution: increasing the FoV leads to an optical field that is under-sampled by the science camera. This work presents a novel computational imaging approach to overcome this tradeoff by leveraging the existing adaptive optics (AO) systems in modern ground-based telescopes. Our key idea is to use the AO system's deformable mirror to apply a series of learned, precisely controlled distortions to the optical wavefront, producing a sequence of images that exhibit distinct, high-frequency, sub-pixel shifts. These images can then be jointly upsampled to yield the final super-resolved image. Crucially, we show this can be done while simultaneously maintaining the core AO operation--correcting for the unknown and rapidly changing wavefront distortions caused by Earth's atmosphere. To achieve this, we…
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