2010
DOI: 10.1142/s0218126610006025
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Template Matching in Digital Images Using a Compact Genetic Algorithm With Elitism and Mutation

Abstract: The emCGA is a new extension of the compact genetic algorithm (CGA) that includes elitism and a mutation operator. These improvements do not increase significantly the computational cost or the memory consumption and, on the other hand, increase the overall performance in comparison with other similar works. The emCGA is applied to the problem of object recognition in digital images. The objective is to find a reference image (template) in a landscape image, subject to distortions and degradation in quality. T… Show more

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Cited by 6 publications
(4 citation statements)
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“…Te most interesting areas of application of compact optimisation in the discrete domain include the Travelling Salesman Problem (TSP) [224,261]; determining minimum set primers in Polymerase Chain Reaction (PCR) [262]; task scheduling in grid computing environments [263]; protein folding [264]; object recognition [265,266]; soft decision decoding [267,268]; minimising the number of coding operations required in multicast based on network coding [222]; estimating the parameters of the maximum log-likelihood function of a frst-order moving average model MA [269] and a mixed model ARMA (1, 1) [223]; optimising the aggregation of multiple similarity measures to obtain a single similarity metric for ontology matching [270]; optimising ontology alignment [271]; designing multiple input multiple output wireless communication systems [272].…”
Section: Binary/discrete Compact Optimisation Algorithmsmentioning
confidence: 99%
“…Te most interesting areas of application of compact optimisation in the discrete domain include the Travelling Salesman Problem (TSP) [224,261]; determining minimum set primers in Polymerase Chain Reaction (PCR) [262]; task scheduling in grid computing environments [263]; protein folding [264]; object recognition [265,266]; soft decision decoding [267,268]; minimising the number of coding operations required in multicast based on network coding [222]; estimating the parameters of the maximum log-likelihood function of a frst-order moving average model MA [269] and a mixed model ARMA (1, 1) [223]; optimising the aggregation of multiple similarity measures to obtain a single similarity metric for ontology matching [270]; optimising ontology alignment [271]; designing multiple input multiple output wireless communication systems [272].…”
Section: Binary/discrete Compact Optimisation Algorithmsmentioning
confidence: 99%
“…Rimcharoen et al (2006) applied a moving average technique to update the probabilistic vector to CGA that enabled the CGA to require fewer evaluations and could achieve a higher solution quality. Also, the mutation operation and some elitism-based schemes were used in Ahn and Ramakrishna (2003), Da Silva et al (2010) and Gallagher et al (2004). To our knowledge, CGA is totally a new method in the production scheduling field.…”
Section: Compact Genetic Algorithmmentioning
confidence: 99%
“…Secondly, design an adaptive elite inheritance strategy, which is different from the elite persistence strategies presented in Ahn and Ramakrishna (2003), Da Silva et al (2010) and Gallagher et al (2004). The strategy proposed in this paper is triggered spontaneously when the evolutionary stagnation is met, inheriting the optimum individual that ever got in the previous generations one time to help the evolution process escaping from the local optimal and moving forward.…”
Section: The Details For Acgamentioning
confidence: 99%
“…It is important to mention that finding RI in the LI is difficult since there are many local optima (several other human faces), and the difference between them are small (similar faces). Here we aim at comparing the performance of the iABC with other evolutionary algorithm, the emCGA (Silva, Lopes, & Lima, 2010). Table 3 shows the results obtained by the algorithms, also showing the "gold-standard" (the optimal solution) obtained by an Exhaustive Search Algorithm (ESA).…”
Section: Experiments III -Object Detection With Complex Imagementioning
confidence: 99%