2010 IEEE International Conference on Image Processing 2010
DOI: 10.1109/icip.2010.5652102
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Super Resolution results in PANOPTES, an adaptive multi-aperture folded architecture

Abstract: We present experimental results of digital super resolution (DSR) techniques on low resolution data collected using PANOPTES, a multi-aperture miniature folded imaging architecture. The flat form factor of PANOPTES architecture results in an optical system that is heavily blurred with space variant PSF which makes super resolution challenging. We also introduce a new DSR method called SRUM (Super-Resolution with Unsharpenning Mask) which can efficiently highlight edges by embedding an unsharpenning mask to the… Show more

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Cited by 8 publications
(10 citation statements)
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“…In other words, multiple-image based SR is possible if at least one of the parameters involved in the imaging model employed changes from one LR image to another. These parameters include motion, blur (optical, atmospheric, and/or motion blur), zoom, multiple aperture [106], [446], multiple images from different sensors [117], [205], and different channels of a color image [117]. Therefore, in multiple-image SR prior to the actual reconstruction, a registration step is required to compensate for such changes, though, some of the methods (discussed in Section 6.1.2) do the reconstruction and the compensation of the changes simultaneously.…”
Section: Geometric Registrationmentioning
confidence: 99%
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“…In other words, multiple-image based SR is possible if at least one of the parameters involved in the imaging model employed changes from one LR image to another. These parameters include motion, blur (optical, atmospheric, and/or motion blur), zoom, multiple aperture [106], [446], multiple images from different sensors [117], [205], and different channels of a color image [117]. Therefore, in multiple-image SR prior to the actual reconstruction, a registration step is required to compensate for such changes, though, some of the methods (discussed in Section 6.1.2) do the reconstruction and the compensation of the changes simultaneously.…”
Section: Geometric Registrationmentioning
confidence: 99%
“…The main problem with the above mentioned IBP methods is that the response of the iteration can either converge to one of the possible solutions or it may oscillate between them [8], [13], [14], [20], [75], [83]. However, this can be dealt with by incorporating a priori knowledge about the solution, as has been done in [81], [83], [124], [279], [280], [380], [406], [446], [492], [552]. In this case, these algorithms will try to minimize ||Af − g|| 2 + λ||ρ(f )|| 2 , wherein λ is a regularization coefficient and ρ is a constraint on the solution.…”
Section: Iterative Back Projectionmentioning
confidence: 99%
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“…The DSR algorithm applied to the low-resolution (LR) images is known as superresolution with unsharp masking (SRUM), which we first introduced in [18]. This section briefly describes this DSR algorithm and presents the results of its application to the field-test data.…”
Section: Digital Superresolution Approachmentioning
confidence: 99%
“…The linear forward imaging model in the spatial domain that illustrates the process of generating LR images from a HR image can be defined as [18,19] g k x ↓ ; y ↓ f w k x; y ⊗ h k x; y↓ L n k x ↓ ; y ↓ ; k 1; …; N;…”
Section: A Dsr Forward Modelmentioning
confidence: 99%