2017
DOI: 10.1088/1742-6596/904/1/012013
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A fast gradient projection method for 3D image reconstruction from limited tomographic data

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Cited by 2 publications
(2 citation statements)
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“…where m α is a nonnegative integer and τ k is a positive real number (we refer to the next section for the setting of these parameters). Other steplength updating rules are currently investigated in literature [14,19,16]; in particular, in [12] it has been shown that, for the CT image recontruction application, the step-length selection proposed in [30] seems to well compare with the above alternated BB rule and deeper studies are in progress on this topic.…”
Section: A Scaled Gradient Approach For Ct Image Reconstructionmentioning
confidence: 99%
“…where m α is a nonnegative integer and τ k is a positive real number (we refer to the next section for the setting of these parameters). Other steplength updating rules are currently investigated in literature [14,19,16]; in particular, in [12] it has been shown that, for the CT image recontruction application, the step-length selection proposed in [30] seems to well compare with the above alternated BB rule and deeper studies are in progress on this topic.…”
Section: A Scaled Gradient Approach For Ct Image Reconstructionmentioning
confidence: 99%
“…The challenge of reconstructing a high-quality image x ∈ R n from its degraded measurement b ∈ R n is commonly formulated as a linear inverse problem. Such a problem has to be addressed in several imaging frameworks, such as in medicine [1][2][3][4], microscopy [5][6][7], and astronomy [8][9][10]. Although these are different and maybe distant topics, they share a common linear model [11] for the image acquisition process: namely, b = Ax + η, (1) where A ∈ R n×n is a known blur operator called the Point Spread Function (PSF) [12], and η ∈ R n represents additive random noise with a standard deviation of σ η .…”
Section: Introductionmentioning
confidence: 99%