Convergence analysis of a quadratic upper bounded TV regularizer based blind deconvolution

被引:6
|
作者
Renu, M. R. [1 ]
Chaudhuri, Subhasis [1 ]
Velmurugan, Rajbabu [1 ]
机构
[1] Indian Inst Technol, Dept Elect Engn, Mumbai 400076, Maharashtra, India
关键词
Blind deconvolution; Total variation; Majorize-minimize; Alternate minimization; Convergence analysis; VARIATIONAL APPROACH; IMAGE; MINIMIZATION; RESTORATION; ALGORITHM;
D O I
10.1016/j.sigpro.2014.06.029
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
We provide a novel Fourier domain convergence analysis for blind deconvolution using the quadratic upper-bounded total variation (TV) as the regularizer. Though quadratic upper-bounded TV leads to a linear system in each step of the alternate minimization (AM) algorithm used, it is shift-variant, which makes Fourier domain analysis impossible. So we use an approximation which makes the system shift invariant at each iteration. The resultant points of convergence are better - in the sense of reflecting the data - than those obtained using a quadratic regularizer. We analyze the error due to the approximation used to make the system shift invariant. This analysis provides an insight into how TV regularization works and why it is better than the quadratic smoothness regularizer. (C) 2014 Elsevier B.V. All rights reserved.
引用
收藏
页码:174 / 183
页数:10
相关论文
共 35 条
  • [21] A Blind Source Separation Method Based on Bounded Component Analysis Optimized by the Improved Beetle Antennae Search
    Tang, Mingyang
    Wu, Yafeng
    SENSORS, 2023, 23 (19)
  • [22] Convergence analysis of blind equalizer in a cosine modulated filter bank - Based multicarrier communication system
    Lin, L
    Farhang-Boroujeny, B
    2003 4TH IEEE WORKSHOP ON SIGNAL PROCESSING ADVANCES IN WIRELESS COMMUNICATIONS - SPAWC 2003, 2004, : 368 - 372
  • [23] Analysis of uncertainties and convergence of the statistical quantities in turbulent wall-bounded flows by means of a physically based criterion
    Andrade, Joao Rodrigo
    Martins, Ramon Silva
    Thompson, Roney Leon
    Mompean, Gilmar
    Neto, Aristeu da Silveira
    PHYSICS OF FLUIDS, 2018, 30 (04)
  • [24] Convergence analysis for Lasserre's measure-based hierarchy of upper bounds for polynomial optimization
    de Klerk, Etienne
    Laurent, Monique
    Sun, Zhao
    MATHEMATICAL PROGRAMMING, 2017, 162 (1-2) : 363 - 392
  • [25] Convergence analysis for Lasserre’s measure-based hierarchy of upper bounds for polynomial optimization
    Etienne de Klerk
    Monique Laurent
    Zhao Sun
    Mathematical Programming, 2017, 162 : 363 - 392
  • [26] Parallel structured independent component analysis for SIMO-model-based blind separation and deconvolution of convolutive speech mixture
    Saruwatari, H
    Yamajo, H
    Takatani, T
    Nishikawa, T
    Shikano, K
    PROCEEDINGS OF THE INTERNATIONAL JOINT CONFERENCE ON NEURAL NETWORKS 2003, VOLS 1-4, 2003, : 714 - 719
  • [27] Convolutive blind source separation in the frequency domain of mechanical noise for gas turbines based on bounded component analysis
    Cheng, Wei
    Chen, Shuang
    Song, Chao
    Ou, Kai
    Chen, Xuefeng
    Wang, Jun
    Yan, Liqi
    Yang, Mingsui
    MEASUREMENT SCIENCE AND TECHNOLOGY, 2023, 34 (03)
  • [28] Using drinking data and pharmacokinetic modeling to calibrate transport model and blind deconvolution based data analysis software for transdermal alcohol biosensors
    Dai Z.
    Rosen I.G.
    Wang C.
    Barnett N.P.
    Luczak S.E.
    Rosen, I.G. (grosen@math.usc.edu), 1600, Arizona State University (13): : 911 - 934
  • [29] USING DRINKING DATA AND PHARMACOKINETIC MODELING TO CALIBRATE TRANSPORT MODEL AND BLIND DECONVOLUTION BASED DATA ANALYSIS SOFTWARE FOR TRANSDERMAL ALCOHOL BIOSENSORS
    Dai, Zheng
    Rosen, I. G.
    Wang, Chuming
    Barnett, Nancy P.
    Luczak, Susan E.
    MATHEMATICAL BIOSCIENCES AND ENGINEERING, 2016, 13 (05) : 911 - 934
  • [30] Improved convergence analysis of Lasserre’s measure-based upper bounds for polynomial minimization on compact sets
    Lucas Slot
    Monique Laurent
    Mathematical Programming, 2022, 193 : 831 - 871