A mathematical introduction to compressive sensing

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Détails bibliographiques
Auteurs principaux: Foucart, Simon, Rauhut, Holger (Auteur)
Format: Livre papier
Langue:Anglais
Publié: New York : Birkhäuser : Springer C 2013.
Collection:Applied and numerical harmonic analysis
Sujets:
Autres localisations: Voir dans le Sudoc
Edition sous un autre format:• A mathematical introduction to compressive sensing, by Simon Foucart, Holger Rauhut., 1st ed. 2013., New York, NY, Springer New York, 2013, Applied and Numerical Harmonic Analysis, 978-0-8176-4948-7
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082 |a 004 
084 |a G.1 
084 |a 94-01. 2010 
084 |a 94A08. 2010 
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100 1 |a Foucart, Simon. 
245 1 0 |a A mathematical introduction to compressive sensing   |c Simon Foucart, Holger Rauhut. 
260 |a New York :  |b Birkhäuser :  |b Springer. 
260 |c C 2013. 
300 |a 1 vol. (XVIII-625 p.) :  |b fig., ill., phot., couv. ill. en coul. ;  |c 24 cm. 
490 1 |a Applied and numerical harmonic analysis 
504 |a Bibliogr. p. 593-615. Index 
505 0 |a 1 An Invitation to Compressive Sensing -- 1.1 What is Compressive Sensing? -- 1.2 Applications, Motivations, and Extensions -- 1.3 Overview of the Book -- 2 Sparse Solutions of Underdetermined Systems -- 2.1 Sparsity and Compressibility -- 2.2 Minimal Number of Measurements -- 2.3 NP-Hardness of 0-Minimization -- 3 Basic Algorithms -- 3.1 Optimization Methods -- 3.2 Greedy Methods . -- 3.3 Thresholding-Based Methods -- 4 Basis Pursuit -- 4.1 Null Space Property -- 4.2 Stability -- 4.3 Robustness -- 4.4 Recovery of Individual Vectors -- 4.5 The Projected Cross-Polytope -- 4.6 Low-Rank Matrix Recovery -- 5 Coherence -- 5.1 Definitions and Basic Properties -- 5.2 Matrices with Small Coherence -- 5.3 Analysis of Orthogonal Matching Pursuit -- 5.4 Analysis of Basis Pursuit -- 5.5 Analysis of Thresholding Algorithms -- 6 Restricted Isometry Property -- 6.1 Definitions and Basic Properties -- 6.2 Analysis of Basis Pursuit -- 6.3 Analysis of Thresholding Algorithms -- 6.4 Analysis of Greedy Algorithms -- 7 Basic Tools from Probability Theory -- 7.1 Essentials from Probability -- 7.2 Moments and Tails -- 7.3 Cramer s Theorem and Hoeffding s Inequality -- 7.4 Subgaussian Random Variables -- 7.5 Bernstein Inequalities -- 8 Advanced Tools from Probability Theory -- 8.1 Expectation of Norms of Gaussian Vectors -- 8.2 Rademacher Sums and Symmetrization -- 8.3 Khintchine Inequalities -- 8.4 Decoupling -- 8.5 Noncommutative Bernstein Inequality -- 8.6 Dudley s Inequality -- 8.7 Slepian s and Gordon s Lemmas -- 8.8 Concentration of Measure -- 8.9 Bernstein Inequality for Suprema of Empirical Processes -- 9 Sparse Recovery with Random Matrices -- 9.1 Restricted Isometry Property for Subgaussian Matrices -- 9.2 Nonuniform Recovery -- 9.3 Restricted Isometry Property for Gaussian Matrices -- 9.4 Null Space Property for Gaussian Matrices -- 9.5 Relation to Johnson Lindenstrauss Embeddings -- 10 Gelfand Widths of 1-Balls -- 10.1 Definitions and Relation to Compressive Sensing -- 10.2 Estimate for the Gelfand Widths of 1-Balls -- 10.3 Applications to the Geometry of Banach Spaces -- 11 Instance Optimality and Quotient Property -- 11.1 Uniform Instance Optimality -- 11.2 Robustness and Quotient Property -- 11.3 Quotient Property for Random Matrices -- 11.4 Nonuniform Instance Optimality -- 12 Random Sampling in Bounded Orthonormal Systems -- 12.1 Bounded Orthonormal Systems -- 12.2 Uncertainty Principles and Lower Bounds -- 12.3 Nonuniform Recovery: Random Sign Patterns -- 12.4 Nonuniform Recovery: Deterministic Sign Patterns -- 12.5 Restricted Isometry Property -- 12.6 Discrete Bounded Orthonormal Systems -- 12.7 Relation to the 1-Problem -- 13 Lossless Expanders in Compressive Sensing -- 13.1 Definitions and Basic Properties -- 13.2 Existence of Lossless Expanders -- 13.3 Analysis of Basis Pursuit -- 13.4 Analysis of an Iterative Thresholding Algorithm -- 13.5 Analysis of a Simple Sublinear-Time Algorithm -- 14 Recovery of Random Signals using Deterministic Matrices -- 14.1 Conditioning of Random Submatrices -- 14.2 Sparse Recovery via 1-Minimization -- 15 Algorithms for 1-Minimization -- 5.1 The Homotopy Method -- 15.2 Chambolle and Pock s Primal-Dual Algorithm -- 15.3 Iteratively Reweighted Least Squares -- A Matrix Analysis -- A.1 Vector and Matrix Norms -- A.2 The Singular Value Decomposition -- A.3 Least Squares Problems -- A.4 Vandermonde Matrices -- A.5 Matrix Function -- B Convex Analysis -- B.1 Convex Sets -- B.2 Convex Functions -- B.3 The Convex Conjugate -- B.4 The Subdifferential -- B.5 Convex Optimization Problems -- B.6 Matrix Convexity -- C Miscellanea -- C.1 Fourier Analysis -- C.2 Covering Numbers -- C.3 The Gamma Function and Stirling s Formula -- C.4 The Multinomial Theorem 
650 |a Analyse informatique 
650 |a Informatique  |x Mathématiques 
650 |a Données  |x Compression (télécommunications) 
650 |a Traitement du signal  |x Techniques numériques 
650 |a Algorithmes optimaux 
650 |a Échantillonnage (statistique) 
700 1 |a Rauhut, Holger.  |4 aut 
776 0 |0 172416795  |t A mathematical introduction to compressive sensing  |f by Simon Foucart, Holger Rauhut.  |e 1st ed. 2013.  |c New York, NY  |n Springer New York  |d 2013  |s Applied and Numerical Harmonic Analysis  |z 978-0-8176-4948-7 
997 |0 580782  |1 Livre papier  |a Ressource papier  |c 0/Orléans/  |c 1/Orléans/IDP/  |z Orléans, IDP, 8091 FOU