Return
Adaptive multi-scale hypergraph neural network for multi-source detection
DOI:10.1016/j.knosys.2026.116883.png)
Abstract
En 中文
Hypergraph-based source detection focuses on inversely identifying diffusion sources from spreading snapshots defined over higher-order interaction structures. Traditional methods developed on simple networks assume pairwise transmission and therefore fail to capture the higher-order aggregated interactions and non-binary dependencies that commonly exist in real-world systems. Since hypergraphs explicitly encode multi-node relationships, investigating source detection under hypergraph representations is essential for improving spreading control and early warning in complex environments. To address the multi-source tracing task characterized by higher-order features, we propose an Adaptive Multi-Scale Hypergraph Neural Network framework, termed AMHNN. The proposed AMHNN incorporates an adaptive spreading layer that integrates learnable gating with multi-order topological perception, enabling the model to alleviate source signal dilution, namely the loss of source-related information caused by repeated aggregation with infected non-source nodes, while effectively capturing long-range structural dependencies. In addition, a hyperedge-based attention mechanism is designed to model local heterogeneity by evaluating node importance strictly within hyperedge scopes. This unified architecture facilitates robust learning of latent diffusion patterns directly from observed data without requiring prior knowledge of spreading dynamics. Experiments on 12 synthetic and empirical hypergraph datasets demonstrate that AMHNN consistently outperforms baseline methods, achieving an average F1-score improvement of 13.8% over the strongest baseline across the three spreading models. The proposed framework provides an effective and scalable solution for source detection in higher-order networks and supports practical applications in epidemic tracking, rumor identification, and complex system governance.
Keywords:
Hypergraph source detection
Hypergraph neural network
Adaptive gating
Hyperedge attention
Journal
K
IF:
7.6
Papers:
1.3W
Citations:
4.5W
Organization
Cited Papers
No cited papers available

