TY - JOUR
T1 - Effective zero-norm minimization algorithms for noisy compressed sensing
AU - Guo, Shu Mei
AU - Huang, Chen Kai
AU - Huang, Tzu Jui
AU - Tsai, Jason Sheng Hong
AU - Shieh, Leang San
AU - Canelon, Jose I.
N1 - Publisher Copyright:
© 2020 The Franklin Institute
PY - 2020/7
Y1 - 2020/7
N2 - This paper proposes two new algorithms, namely (i) SSReL1Min(CVX)-Scalar-Sign function-based Reweighted L1−norm Minimization algorithm combined with Disciplined Convex Programming for a high-performance L0−norm Minimization algorithm and (ii) SSReL1Min(MBB) – SSReL1Min algorithm combined with modified Barzilai-Borwein algorithm for a computational fast L0−norm Minimization algorithm (without significantly sacrificing the performance). Based on the proposed L0−norm minimization algorithm, this paper also presents an upgraded compressed sensing to improve its performance on the recovery of noisy signals. The proposed L0−norm minimization algorithm includes a new optimal scalar-sign function-based weighting (in the least squares sense), as well as a new and systematic mapping mechanism in pre- and post-processing, for noisy compressed sensing. This improvement is further confirmed by experimental results. Comparisons with different state-of-the-art solvers are also included, to show that the proposed method outperforms existing ones.
AB - This paper proposes two new algorithms, namely (i) SSReL1Min(CVX)-Scalar-Sign function-based Reweighted L1−norm Minimization algorithm combined with Disciplined Convex Programming for a high-performance L0−norm Minimization algorithm and (ii) SSReL1Min(MBB) – SSReL1Min algorithm combined with modified Barzilai-Borwein algorithm for a computational fast L0−norm Minimization algorithm (without significantly sacrificing the performance). Based on the proposed L0−norm minimization algorithm, this paper also presents an upgraded compressed sensing to improve its performance on the recovery of noisy signals. The proposed L0−norm minimization algorithm includes a new optimal scalar-sign function-based weighting (in the least squares sense), as well as a new and systematic mapping mechanism in pre- and post-processing, for noisy compressed sensing. This improvement is further confirmed by experimental results. Comparisons with different state-of-the-art solvers are also included, to show that the proposed method outperforms existing ones.
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U2 - 10.1016/j.jfranklin.2020.03.023
DO - 10.1016/j.jfranklin.2020.03.023
M3 - Article
AN - SCOPUS:85085963403
SN - 0016-0032
VL - 357
SP - 7159
EP - 7187
JO - Journal of the Franklin Institute
JF - Journal of the Franklin Institute
IS - 11
ER -