On signal reconstruction without phase
By Radu V. Balan, Peter G. Casazza, Dan Edidin. 2006
630 citations recorded by the source corpus.
Subfields: Applied Mathematics, Computer Vision and Pattern Recognition, Signal Processing
View Paper: https://www.semanticscholar.org/paper/43f2540490562cfd7ade43e74d088973973a22ba
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Applied Mathematics
- E.J. Candes
- Gitta Kutyniok
- Yonina C. Eldar
- Joan Bruna
- Justin K. Romberg
- Peter G. Casazza
- Radu V. Balan
- Jelena Kovacevic
In Computer Vision and Pattern Recognition
- Luc Van Gool
- Dacheng Tao
- Shuicheng Yan
- Ming-Hsuan Yang
- Lei Zhang
- E.J. Candes
- Xiaogang Wang
- Jitendra Malik
In Signal Processing
- E.J. Candes
- Stéphane Mallat
- Gitta Kutyniok
- Philip Schniter
- Justin K. Romberg
- Xiaodong Li
- Peter G. Casazza
- M. Soltanolkotabi
Citations in the corpus
- Phase Retrieval via Wirtinger Flow: Theory and Algorithms (2014, methodology): “Because of the practical significance of the phase retrieval problem in imaging science, the community has developed methods for recovering a signal x ∈ Cn from data of the form yr = ∣⟨ar,x⟩∣2 in the special case where one samples the (square) modulus of its Fourier transform.”
- A Geometric Analysis of Phase Retrieval (2016, background): “4Another line of research [23–25] seeks to co-design the measurements and recovery algorithms based on frame- or graph-theoretic tools.”
- Statistical guarantees for the EM algorithm: From population to sample-based analysis (2014, neutral): “, [3, 9, 35]).”
- Phase Retrieval from Coded Diffraction Patterns (2013, neutral): “Other areas where related problems appear include acoustics [12, 8], blind channel estimation in wireless communications [4, 45], interferometry [28], quantum mechanics [25, 47] and quantum information [34].”
- Signal recovery from Pooling Representations (2013, background): “As in previous works on compressed sensing (Candes and Tao, 2004) and phase recovery (Balan et al., 2006), one may address this question by studying random pooling operators.”
- Phase Retrieval with Application to Optical Imaging: A contemporary overview (2015, background): “The work of Balan [40] implies that, for real signals in , R N 2 1 - random measurements are needed, provided that they are full spark, i.”
- An Overview of Low-Rank Matrix Recovery From Incomplete Observations (2016, background): “In [118], it is shown that for generic a , if L ≥ 2N − 1, then v0 is the only vector (up to a sign) that has the measurements (26).”
- Saving phase: Injectivity and stability for phase retrieval (2013, methodology): “In the real case, the complement property is characteristic of injectivity, as demonstrated in [7].”
- A new identity for Parseval frames (2007, methodology): “While working on efficient algorithms for signal reconstruction, the authors of [1] discovered a surprising identity for Parseval frames (see [2] for a detailed discussion of the origins of the identity).”
- Unsupervised Deep Haar Scattering on Graphs (2014, background): “airing problem. A scattering S J operators is not invertible because the modulus looses a complex phase or a sign. In the real case, for almost all pairs of unitary operators (A;B) it has been proved [11] that the operator (jAj;jBj) is invertible on Rd. If Wis real, one can thus expect that (jWˇ0j;j”
- Compressive phase retrieval via generalized approximate message passing (2012, background): “Non-imaging applications include acoustics [12], interferometry [13], and quantum mechanics [14].”
- An Introduction to Frames (2008, background): “1 No one seems to know why they are called frames, perhaps because of the bounds in (3.8).”