2011
DOI: 10.1007/s00778-011-0262-6
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Clustering and aggregating clues of trajectories for mining trajectory patterns and routes

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Cited by 162 publications
(93 citation statements)
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“…Figure 1 gives an overview of the NoiseClust algorithm including some steps as follows: (1) given a description of the taxi GPS data, our approach first used four taxi GPS data sets to explain the OD of the GPS data based trajectory (see Section 2.1); (2) real taxi GPS data sequences are used to encode chromosomes (see Section 2.2); (3) an initial population approach is proposed using noise, and K-means++ to initialize seeds (see Section 2.3); (4) DBI (Davis-Boudin index) [32] is employed as a fitness function; (5) in the genetic operation, a gene rearrangement technique based on cosine, and adaptive probabilities of crossover and mutation, are used for genetic operation (see Section 2.5); (6) a density estimation method is presented to divide the number of niches, and a share function also is used for the genetic operation, which are considered as the niche genetic algorithm (NGA) (see Section 2.6); (7) in Section 2.7, an elitism strategy is used to select the best chromosome, which is used to replace the worst chromosome in the current iteration; (8) the best chromosome is obtained to use K-means clustering; (9) the termination condition of K-means clustering is given in Section 2.9; and (10) the complexity of the NoiseClust algorithm is analyzed in Section 2.1. algorithm (NGA) (see Section 2.6); (7) in Section 2.7, an elitism strategy is used to select the best chromosome, which is used to replace the worst chromosome in the current iteration; (8) the best chromosome is obtained to use K-means clustering; (9) the termination condition of K-means clustering is given in Section 2.9; and (10) the complexity of the NoiseClust algorithm is analyzed in Section 2.1. …”
Section: The Noiseclust Clustering Algorithmmentioning
confidence: 99%
“…Figure 1 gives an overview of the NoiseClust algorithm including some steps as follows: (1) given a description of the taxi GPS data, our approach first used four taxi GPS data sets to explain the OD of the GPS data based trajectory (see Section 2.1); (2) real taxi GPS data sequences are used to encode chromosomes (see Section 2.2); (3) an initial population approach is proposed using noise, and K-means++ to initialize seeds (see Section 2.3); (4) DBI (Davis-Boudin index) [32] is employed as a fitness function; (5) in the genetic operation, a gene rearrangement technique based on cosine, and adaptive probabilities of crossover and mutation, are used for genetic operation (see Section 2.5); (6) a density estimation method is presented to divide the number of niches, and a share function also is used for the genetic operation, which are considered as the niche genetic algorithm (NGA) (see Section 2.6); (7) in Section 2.7, an elitism strategy is used to select the best chromosome, which is used to replace the worst chromosome in the current iteration; (8) the best chromosome is obtained to use K-means clustering; (9) the termination condition of K-means clustering is given in Section 2.9; and (10) the complexity of the NoiseClust algorithm is analyzed in Section 2.1. algorithm (NGA) (see Section 2.6); (7) in Section 2.7, an elitism strategy is used to select the best chromosome, which is used to replace the worst chromosome in the current iteration; (8) the best chromosome is obtained to use K-means clustering; (9) the termination condition of K-means clustering is given in Section 2.9; and (10) the complexity of the NoiseClust algorithm is analyzed in Section 2.1. …”
Section: The Noiseclust Clustering Algorithmmentioning
confidence: 99%
“…Several researchers have recognized that partitional cluster algorithms area unit like-minded for cluster large document data sets thanks to their relatively low method wants (Steinbach, Karypis & Kumar, 2000). The presence of logical structure clues inside the document, scientific criteria and math similarity measures are primarily accustomed figure thematically coherent, contiguous text blocks in unstructured documents (Lee, Han & Whang, 2007;Hung, Peng & Lee, 2015;MacQueen, 1967;Ferrari, & De Castro, 2015). Use PLSA to cipher word-topic distributions, fold in those distributions at the block level, and so choose segmentation points supported the similarity values of adjacent block pairs.…”
Section: Background and Related Workmentioning
confidence: 99%
“…The presence of logical structure clues within the document, scientific criteria and applied math similarity measures chiefly accustomed figure thematically coherent, contiguous text blocks in unstructured documents (Sun et al, 2008;Zhang et al, 2014;Rangel et al, 2016). Recent segmentation techniques have taken advantage of advances in generative topic modeling algorithms, which were specifically designed to spot issues at intervals text to cipher word-topic distributions (Lee, Han &Whang, 2007;Hung, Peng& Lee, 2015).…”
Section: Background and Related Workmentioning
confidence: 99%
“…Trajectories have also been clustered using similarity measures [8,9]. Some popular similarity measures which have been used to compare trajectories are Euclidian distance [10], LCSS (Least Common Subsequence) [11], DTW (Dynamic Time Warping) [12], ERP (Edit distance with Real Penalty) [13], EDR (Edit Distance on Real sequences) [9], and CATS (Clue Aware Trajectory Similarity) [14]. Without getting help from a complementary method such as sliding window, these similarity measures can only find the similarity between complete trajectories and will not give any information about the common sub-trajectories.…”
Section: Introductionmentioning
confidence: 99%