Path-aware Few-shot Knowledge Graph Completion | IEEE Journals & Magazine | IEEE Xplore
Impact Statement:Knowledge graphs are critical for organizing and retrieving vast amounts of information, yet they often face challenges due to the long-tail problem, where many entities ...Show More

Abstract:

Few-shot Knowledge Graph Completion (FKGC) has emerged as a significant area of interest for addressing the long-tail problem in knowledge graphs. Traditional approaches ...Show More
Impact Statement:
Knowledge graphs are critical for organizing and retrieving vast amounts of information, yet they often face challenges due to the long-tail problem, where many entities have sparse data. Our research addresses this issue by introducing a novel approach for few-shot knowledge graph completion that leverages both neighborhood and path information. This innovative approach significantly improves the accuracy of predicting missing links in knowledge graphs, even with minimal data. The potential real-world applications of our approach are extensive and impactful, enhancing the performance of Artificial Intelligence (AI) systems reliant on knowledge graphs. In recommender systems, for instance, our approach can improve the relevance and accuracy of recommendations by filling in missing connections between user preferences and content. In domains like healthcare, our approach can aid in linking disparate pieces of medical knowledge, thereby supporting more comprehensive patient care and adva...

Abstract:

Few-shot Knowledge Graph Completion (FKGC) has emerged as a significant area of interest for addressing the long-tail problem in knowledge graphs. Traditional approaches often focus on the sparse few-shot neighborhood to derive semantic representation, overlooking other critical information forms such as relation paths. In this paper, we introduce an innovative method, called PARE, which fully leverages relation paths to enhance the few-shot representation by simultaneously incorporating both neighborhood and relation path information. Inspired by the principles of information transmission, PARE directly models relation paths between entities and parameterizes the information interference within different relation paths. Through parameter learning, PARE effectively captures information propagation along relation paths while mitigating the influence of relation dependency. To preserve neighborhood information, we employ a two-step neighborhood aggregator to resolve few-shot neighbors’ a...
Published in: IEEE Transactions on Artificial Intelligence ( Early Access )
Page(s): 1 - 14
Date of Publication: 11 February 2025
Electronic ISSN: 2691-4581

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