Super-resolution through Error Energy Reduction
By R. Gerchberg. 1974
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
- Yonina C. Eldar
- E.J. Candes
- Michael Elad
- Marco F. Duarte
- David L. Donoho
- Joel A. Tropp
- Francis R. Bach
- Julien Mairal
Citations in the corpus
- Designing structured tight frames via an alternating projection method (2005, methodology): “In the field of signal restoration and recovery, we mention the work of Landau–Miranker [98], Gerchberg [99], Youla–Webb [100], Cadzow [95], and Donoho–Stark [101].”
- A limited-angle CT reconstruction method based on anisotropic TV minimization (2013, methodology): “One direction is to develop new reconstruction algorithms such as iterative reconstruction re-projection, Gerchberg–Papoulis, singular value decomposition, wavelet decomposition, projections onto convex sets (POCS) and so on (Nassi et al 1982, Gerchberg 1974, Natterer 2001, Candes and Romberg 2005).”
- Signal Recovery by Proximal Forward-Backward Splitting (2005, result): “In that paper, the problem was to find a signal x in a closed vector subspace C , knowing its projection p onto a closed vector subspace V (hence L = P V and Q = { p } ); it was also observed that the standard signal extrapolation schemes of Gerchberg [37] and Papoulis [59] fitted this framework.”
- Deconvolution in Astronomy: A Review (2002, methodology): “The Gerchberg-Saxon-Papoulis (Gerchberg 1974) method is iterative and uses the a priori information on the object, which is its positivity and its support in the spatial domain.”
- The Hybrid Steepest Descent Method for the Variational Inequality Problem over the Intersection of Fixed Point Sets of Nonexpansive Mappings (2001, background): “band-limited extrapolation with subspace constraints [54, 71, 83, 86], (ii) image reconstruction with positivity constraint [62, 96–99, 114, 115], and (iii) signal recovery (or design) [4, 64, 81, 86, 94, 95] accompanied by constraints on amplitude, support, energy etc.”
- Super-resolution: a comprehensive survey (2014, methodology): “Frequency (Fourier) [1], [2], [3], [9], [11], [12], [15], [17], [19], [21], [46], [52], [59], [67], [68], [69], [70], [103], [104], [110], [120], [137], [119], [126], [141], [144], [145], [161], [178], [197], [201], [211], [219], [221], [267], [321], [351], [356], [359], [487], [358], [370], [390], ”
- Foundations of Signal Processing (2014, methodology): “Iterative reconstruction algorithms The alternating projection algorithm was introduced and analyzed by Cheney and Goldstein [13]; Papoulis [75] and Gerchberg [33] popularized it for reconstruction of bandlimited signals.”
- A novel scheme for the solution of the time-domain integral equations of electromagnetics (2004, background): “Here, the function to be extrapolated is known to be bandlimited, and there exists a voluminous literature on the extrapolation of bandlimited functions (see, for example, [31]–[33]).”
- GESPAR: Efficient Phase Retrieval of Sparse Signals (2013, background): “A variety of methods have been developed that use such prior information, which may be the signal’s support (region in which the signal is nonzero), non-negativity, or the signal’s magnitude [4], [5].”