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Bio
RESEARCH INTERESTS
Data Mining, Artificial Intelligence (Machine Learning and Deep Learning), Social Computing, Natural Language Processing, Data Science, Internet of Things
Highlighted research work “Anomaly Detection in Dynamic Networks”
Evolution in the nodes along with their attributes leverages the probability of anomalies in the network. We aim to detect anomalies in the dynamic network settings where network structure emerges due to the co-evolution of nodal attributes. In a dynamic attributed network, certain attributes influence nodes and cause them anomalies. In this study, we propose a DEep Co-evolution architecture for anOmaly DetEction (DECODE) in dynamic network settings. Particularly, the proposed architecture models node-attribute embedding learning with the recognized Graph Neural Network (GNN). A Long Short-term Memory (LSTM) autoencoder is trained to reconstruct the learned embeddings. The combinatorial effect of LSTM autoencoders and GNN helps to spot the anomalies by computing network reconstruction errors in terms of both nodes and attributes. We do provide experimentation on real-world datasets that depicts the effectiveness of the proposed architecture.
Data Mining, Artificial Intelligence (Machine Learning and Deep Learning), Social Computing, Natural Language Processing, Data Science, Internet of Things
Highlighted research work “Anomaly Detection in Dynamic Networks”
Evolution in the nodes along with their attributes leverages the probability of anomalies in the network. We aim to detect anomalies in the dynamic network settings where network structure emerges due to the co-evolution of nodal attributes. In a dynamic attributed network, certain attributes influence nodes and cause them anomalies. In this study, we propose a DEep Co-evolution architecture for anOmaly DetEction (DECODE) in dynamic network settings. Particularly, the proposed architecture models node-attribute embedding learning with the recognized Graph Neural Network (GNN). A Long Short-term Memory (LSTM) autoencoder is trained to reconstruct the learned embeddings. The combinatorial effect of LSTM autoencoders and GNN helps to spot the anomalies by computing network reconstruction errors in terms of both nodes and attributes. We do provide experimentation on real-world datasets that depicts the effectiveness of the proposed architecture.
Research Interests
Papers共 158 篇Author StatisticsCo-AuthorSimilar Experts
By YearBy Citation主题筛选期刊级别筛选合作者筛选合作机构筛选
时间
引用量
主题
期刊级别
合作者
合作机构
IEEE ACCESS (2025): 1817-1833
Sensors (Basel, Switzerland)no. 3 (2025)
ALEXANDRIA ENGINEERING JOURNAL (2025): 400-419
PeerJ Computer Science (2025): e2689
International Journal of Energy Economics and Policyno. 3 (2025)
Scientific reportsno. 1 (2025): 7619-7619
Scientific reportsno. 1 (2025): 13251-13251
IEEE Open Journal of the Computer Societyno. 99 (2025): 1-20
pubmed(2025)
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Author Statistics
#Papers: 154
#Citation: 3295
H-Index: 29
G-Index: 53
Sociability: 5
Diversity: 3
Activity: 28
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