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ConNR: A continual N-ary knowledge reasoner for growing N-ary knowledge graphs.
Jiyao Wei1, Saiping Guan1, Xiaolong Jin1
1School of Computer Science and Technology, University of Chinese Academy of Sciences, Beijing, China; State Key Laboratory of AI Safety, Institute of Computing Technology, Chinese Academy of Sciences, Beijing, China.
This study introduces Continual Link Prediction in growing N-ary Knowledge Graphs (NKGs). The proposed ConNR model effectively predicts missing links in dynamic NKGs without retraining, overcoming knowledge forgetting.
Area of Science:
- Artificial Intelligence
- Data Science
- Knowledge Representation
Background:
- N-ary Knowledge Graphs (NKGs) contain complex, multi-entity facts prevalent in real-world data.
- Existing Link Prediction in NKGs (LPN) methods assume static graphs, requiring costly retraining or fine-tuning when new facts emerge.
- This leads to challenges like knowledge forgetting and significant computational overhead in dynamic environments.
Purpose of the Study:
- Introduce a new task: Continual Link Prediction in growing NKGs (CLPN).
- Address the limitations of static LPN methods in dynamic, evolving knowledge graph scenarios.
- Develop a model capable of adapting to new information without compromising previously learned knowledge.
Main Methods:
- Propose ConNR (Continual N-ary knowledge Reasoner) for CLPN.
- ConNR features an embedding generation module for new elements, an embedding update module for global consistency, and a fact decoder for semantic understanding.
- Utilize five carefully constructed datasets representing diverse NKG growth patterns for evaluation.
Main Results:
- ConNR demonstrates superior performance in predicting missing elements within growing NKGs.
- The model effectively handles the introduction of new facts over time.
- Experimental results validate ConNR's ability to adapt and learn continuously.
Conclusions:
- CLPN is a crucial task for managing and enriching real-world, dynamic NKGs.
- ConNR offers an effective solution for continual link prediction, mitigating knowledge forgetting and reducing computational costs.
- The proposed approach advances the field of knowledge graph completion in evolving data settings.
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