Dynamic label propagation in social networks
Label propagation has been studied for many years, starting from a set of nodes with labels and then propagating to those without labels. In social networks, building complete user profiles like interests and affiliations contributes to the systems like link prediction, personalized feeding, etc. Si...
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sg-smu-ink.sis_research-27322018-06-18T06:02:15Z Dynamic label propagation in social networks DU, Juan ZHU, Feida LIM, Ee Peng Label propagation has been studied for many years, starting from a set of nodes with labels and then propagating to those without labels. In social networks, building complete user profiles like interests and affiliations contributes to the systems like link prediction, personalized feeding, etc. Since the labels for each user are mostly not filled, we often employ some people to label these users. And therefore, the cost of human labeling is high if the data set is large. To reduce the expense, we need to select the optimal data set for labeling, which produces the best propagation result. In this paper, we proposed two algorithms for the selection of the optimal data set for labeling, which is the greedy and greedyMax algorithms according to different user input. We select the data set according to two scenarios, which are 1) finding top-K nodes for labeling and then propagating as much nodes as possible, and 2) finding a minimal set of nodes for labeling and then propagating the whole network with at least one label. Furthermore, we analyze the network structure that affects the selection and propagation results. Our algorithms are suitable for most propagation algorithms. In the experiment part, we evaluate our algorithms based on 500 networks extracted from the film-actor table in freebase according to the two different scenarios. The performance including input percentage, time cost, precision and f1-score were present in the results. And from the results, the greedyMax could achieve higher performance with a balance of precision and time cost than the greedy algorithm. In addition, our algorithm could be adaptive to the user input in a quick response. 2013-04-01T07:00:00Z text application/pdf https://ink.library.smu.edu.sg/sis_research/1733 info:doi/10.1007/978-3-642-37450-0_14 https://ink.library.smu.edu.sg/context/sis_research/article/2732/viewcontent/chp_3A10.1007_2F978_3_642_37450_0_14.pdf http://creativecommons.org/licenses/by-nc-nd/4.0/ Research Collection School Of Computing and Information Systems eng Institutional Knowledge at Singapore Management University Databases and Information Systems Numerical Analysis and Scientific Computing Social Media |
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Databases and Information Systems Numerical Analysis and Scientific Computing Social Media DU, Juan ZHU, Feida LIM, Ee Peng Dynamic label propagation in social networks |
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Label propagation has been studied for many years, starting from a set of nodes with labels and then propagating to those without labels. In social networks, building complete user profiles like interests and affiliations contributes to the systems like link prediction, personalized feeding, etc. Since the labels for each user are mostly not filled, we often employ some people to label these users. And therefore, the cost of human labeling is high if the data set is large. To reduce the expense, we need to select the optimal data set for labeling, which produces the best propagation result. In this paper, we proposed two algorithms for the selection of the optimal data set for labeling, which is the greedy and greedyMax algorithms according to different user input. We select the data set according to two scenarios, which are 1) finding top-K nodes for labeling and then propagating as much nodes as possible, and 2) finding a minimal set of nodes for labeling and then propagating the whole network with at least one label. Furthermore, we analyze the network structure that affects the selection and propagation results. Our algorithms are suitable for most propagation algorithms. In the experiment part, we evaluate our algorithms based on 500 networks extracted from the film-actor table in freebase according to the two different scenarios. The performance including input percentage, time cost, precision and f1-score were present in the results. And from the results, the greedyMax could achieve higher performance with a balance of precision and time cost than the greedy algorithm. In addition, our algorithm could be adaptive to the user input in a quick response. |
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DU, Juan ZHU, Feida LIM, Ee Peng |
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DU, Juan ZHU, Feida LIM, Ee Peng |
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DU, Juan |
title |
Dynamic label propagation in social networks |
title_short |
Dynamic label propagation in social networks |
title_full |
Dynamic label propagation in social networks |
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Dynamic label propagation in social networks |
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Dynamic label propagation in social networks |
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dynamic label propagation in social networks |
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Institutional Knowledge at Singapore Management University |
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2013 |
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https://ink.library.smu.edu.sg/sis_research/1733 https://ink.library.smu.edu.sg/context/sis_research/article/2732/viewcontent/chp_3A10.1007_2F978_3_642_37450_0_14.pdf |
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