2021
DOI: 10.1007/s11280-021-00903-5
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Semantic-aware heterogeneous information network embedding with incompatible meta-paths

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Cited by 18 publications
(9 citation statements)
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“…To evaluate the performance of the proposed method, we consider both the stateof-the-art methods of recommendation and heterogeneous graph convolutional neural networks. They include ACKRec [15], a method combines meta-paths and graph neural networks to extract features of users and course concepts for course recommendation; MRCRec [16], a method of multi-entity relational self-symmetric meta-path for course recommendation; HAN [19], a heterogeneous graph neural network which uses node-level attention and semantic-level attention to obtain the weights of nodes and meta-paths respectively; ie-HGCN [20], a heterogeneous graph convolutional neural network that uses object-level aggregation and type-level aggregation to discover the best meta-path for nodes embeddings; SAHE [21], a method aggregate node similarity relationships to obtain the node similarity and use KL Divergence to learn node embedding to solve the meta-path incompatibility problem; HetSANN [22], a heterogeneous graph neural network for mining semantic information in heterogeneous networks.…”
Section: Evaluation Metrics and Implementation Detailsmentioning
confidence: 99%
See 1 more Smart Citation
“…To evaluate the performance of the proposed method, we consider both the stateof-the-art methods of recommendation and heterogeneous graph convolutional neural networks. They include ACKRec [15], a method combines meta-paths and graph neural networks to extract features of users and course concepts for course recommendation; MRCRec [16], a method of multi-entity relational self-symmetric meta-path for course recommendation; HAN [19], a heterogeneous graph neural network which uses node-level attention and semantic-level attention to obtain the weights of nodes and meta-paths respectively; ie-HGCN [20], a heterogeneous graph convolutional neural network that uses object-level aggregation and type-level aggregation to discover the best meta-path for nodes embeddings; SAHE [21], a method aggregate node similarity relationships to obtain the node similarity and use KL Divergence to learn node embedding to solve the meta-path incompatibility problem; HetSANN [22], a heterogeneous graph neural network for mining semantic information in heterogeneous networks.…”
Section: Evaluation Metrics and Implementation Detailsmentioning
confidence: 99%
“…Message passing importance of all possible meta-paths. SAHE [21] minimized the distance between the aggregated similarity matrix and the meta-path based similarity matrices to solve the incompatibility problem. Recently, some methods perform heterogeneous graph embedding learning without the use of pre-defined meta-paths.…”
Section: Message Passingmentioning
confidence: 99%
“…Yun et al [47] developed GTN to automatically identify useful graph connections. A technique dubbed MAHINDER is proposed in [55,57] to employ and encode meta-paths over different views with attention on the importance of attributes and data views. In an unsupervised setting, a heterogeneous graph neural network is proposed in [51], which samples a fixed size of neighbours and fuses their features using LSTMs.…”
Section: Heterogeneous Graph Neural Networkmentioning
confidence: 99%
“…[39] developed GTN to automatically identify useful graph connections. A technique dubbed MAHINDER is proposed in [40,41] to employ and encode meta-paths over different views with attention on the importance of attributes and data views. In an unsupervised setting, a heterogeneous graph neural network is proposed in [42], which samples a fixed size of neighbours and fuses their features using LSTMs [43].…”
Section: Heterogeneous Graph Neural Networkmentioning
confidence: 99%