Proceedings Article10.1109/ICDM.2015.21
An Aggressive Graph-Based Selective Sampling Algorithm for Classification
Peng Yang,Peilin Zhao,Vincent W. Zheng,Xiaoli Li +3 more
- 14 Nov 2015
- pp 509-518
20
TL;DR: A spectral-based graph regularization technique is adapted to derive a novel online learning linear algorithm which can handle graph data, although it still queries the labels of all nodes and thus is not preferred, as labelling is typically time-consuming.
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Abstract: Traditional online learning algorithms are designed for vector data only, which assume that the labels of all the training examples are provided. In this paper, we study graph classification where only limited nodes are chosen for labelling by selective sampling. Particularly, we first adapt a spectral-based graph regularization technique to derive a novel online learning linear algorithm which can handle graph data, although it still queries the labels of all nodes and thus is not preferred, as labelling is typically time-consuming. To address this issue, we then propose a new confidence-based query method for selective sampling. The theoretical result shows that our online learning algorithm with a fraction of queried labels can achieve a mistake bound comparable with the one learning on all labels of the nodes. In addition, the algorithm based on our proposed query strategy can achieve a mistake bound better than the one based on other query methods. However, our algorithm is conservative to update the model whenever error happens, which obviously wastes training labels that are valuable for the model. To take advantage of these labels, we further propose a novel aggressive algorithm, which can update the model aggressively even if no error occurs. The theoretical analysis shows that our aggressive approach can achieve a mistake bound better than its conservative and fully-supervised counterpart, with substantially fewer queried times. We empirically evaluate our algorithm on several real-world graph datasets and the experimental results demonstrate that our method is highly effective.
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Citations
Density-aware Local Siamese Autoencoder Network Embedding with Autoencoder Graph Clustering
Yang Zhou,Amnay Amimeur,Chao Jiang,Dejing Dou,Ruoming Jin,Pengwei Wang +5 more
- 01 Dec 2018
TL;DR: A density-aware local autoencoder embedding approach can be utilized to train multiple clustering-based subgraphs with similar local characteristics on the common Siamese networks, to save the memory consumption of multiple local embedding models as well as maintain the similar embedding features.
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Density-Adaptive Local Edge Representation Learning with Generative Adversarial Network Multi-label Edge Classification
Yang Zhou,Sixing Wu,Chao Jiang,Zijie Zhang,Dejing Dou,Ruoming Jin,Pengwei Wang +6 more
- 01 Nov 2018
TL;DR: A novel edge representation learning framework, GANDLERL, that combines generative adversarial network based multi-label classification with density-adaptive local edge representationLearning for producing high-quality low-dimensional edge representations is presented.
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Robust Online Multi-Task Learning with Correlative and Personalized Structures
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TL;DR: In this paper, a robust online multi-task learning (MTL) framework was proposed by decomposing the weight matrix into two components: the first one captures the low-rank common structure among tasks via nuclear norm and the second one identifies the personalized patterns of outlier tasks via a group lasso.
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Robust Online Multi-Task Learning with Correlative and Personalized Structures
Peng Yang,Peilin Zhao,Xin Gao +2 more
TL;DR: This paper proposes a robust online MTL framework that overcomes the restriction of task relatedness into a presumed structure via a single weight matrix by decomposing the weight matrix into two components: the first one captures the low-rank common structure among tasks via a nuclear norm and the second one identifies the personalized patterns of outlier tasks through a group lasso.
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