Sep 2026· Computer Vision, Graphics and Artificial Intelligence (CVGAI 2026)· Vol 14357, pp. 1435704 - 1435704-6· 0 citations· 13 references
Engineering
TL;DR
DLP is more effective than state-of-the-art baselines on inductive link prediction and an integration of an LSTM and Transformer architecture is presented to improve the node representations and acquire the order of dependencies and the whole context.
Abstract
Inductive link prediction is the problem of inferring about new entities and relations present in dynamic knowledge graphs. Traditional approaches typically depend on Personalized PageRank to select subgraphs but do not consider the directional nature of graphs and cannot take care of asymmetrical links. Also, traditional GNN-based communication of closed subgraphs has limited functionality when dealing with complex relationships between nodes. To solve these issues we suggest the use of directed subgraph reasoning model. The addition of in/out-degrees information is used as a method to mine local directed subgraphs that preserve the structural directionality and minimize noise by employing Directed Personalized PageRank. Moreover, an integration of an LSTM and Transformer architecture is presented to improve the node representations and acquire the order of dependencies and the whole context. The experimental results with public benchmark datasets have shown that DLP is more effective than state-of-the-art baselines on inductive link prediction.
Knowledge graph link prediction involving unseen entities and relations requires learning transferable reasoning patterns from observed graph structure. Existing methods based on relation graphs primarily capture pairwise dependencies, limiting their ability to preserve the compositional semantics, relation ordering, a...
This paper combines graph neural network encoders with box-embedding-based semantic losses that encourage learned representations to better satisfy ontology-derived class hierarchies, and compares this approach to both standard link prediction models and models incorporating subclass relations as graph edges.
PEARL is proposed, a Path-Entity Aligned Relational Learning framework that models paths as context-conditioned reasoning signals and employs a dual-view contrastive objective that promotes representation consistency under stochastic contextual perturbations.
Knowledge Graph Embedding models have been extensively used to learn representations of entities and relations in Knowledge Graphs for predicting missing links. However, the quality of the learned representations varies a lot across different areas of the graph. If previous research has loosely linked the problem to re...
Alberto Bernardi, Luca Costabello, Christophe Guéret· 0 citations
A graph neural network model for predicting probabilistic links with network embedding via generalized graph convolutional networks, referred to as LPNE2GGCN for graph network datasets, has been proposed and initial results suggest that this methodology produces excellent results compared to conventional methods across...
Riju Bhattacharya, N. K. Nagwani, Deepak Suresh Asudani et al.· IEEE Access· 0 citations