2017 IEEE International Conference on Bioinformatics and Biomedicine (BIBM) 2017
DOI: 10.1109/bibm.2017.8217747
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A stochastic iterative evolution CT reconstruction algorithm for limited-angle sparse projection data

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Cited by 2 publications
(2 citation statements)
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“…Luo [27] proposed a stochastic iterative evolution CT reconstruction algorithm for limited-angle sparse projection data. The working principle of this algorithm is as follow: a stochastic approach is applied for searching, and Markov Chain is used to predict iterative evolution model and accelerate the proposed algorithm's convergence.…”
Section:  Issn: 2088-8708mentioning
confidence: 99%
See 1 more Smart Citation
“…Luo [27] proposed a stochastic iterative evolution CT reconstruction algorithm for limited-angle sparse projection data. The working principle of this algorithm is as follow: a stochastic approach is applied for searching, and Markov Chain is used to predict iterative evolution model and accelerate the proposed algorithm's convergence.…”
Section:  Issn: 2088-8708mentioning
confidence: 99%
“…Another significant contribution to the field includes a paper by Boughaci et al, [22] with regard to the application of SLS for image steganography, Wang et al, [23] on estimation of the distribution algorithm with a SLS for uncertain capacitated arc routing problems, followed by Rezoug and Boughaci [24] dealing with integration of self-adaptive harmony search with a SLS for tackling knapsack problem. Furthermore, in the last two years there are several other studies conducted with regard to the SLS application, including Putikhin and Kascheev [25], they used SLS for solving SAT problems by extending continuous Boolean formulas, Chu et al, [26] presented neighboring variables based configuration checking in SLS for weighted partial maximum satisfiability, Luo [27], who applied stochastic iterative evolution CT reconstruction algorithm for limited-angle sparse projection data, Yu et al, [28] introduced the Thompson sampling for optimizing SLS. Oliveira et al, [29] studied analysis of the ACO algorithm for solving TSP, Paquete and Stützle [30] presented a review of SLS Algorithms for multi objective combinatorial optimization, Niu et al, [31] introduced a new SLS approach for computing preferred extensions of abstract argumentation, Santos et al, [32], who performed analysis of SLS methods for the unrelated parallel machine scheduling problem and Weise et al, [33], who showed an improved generic BET-AND-RUN strategy with performance prediction for SLS.…”
Section: Introductionmentioning
confidence: 99%