Utilizing Effective Dynamic Graph Learning to Shield Financial Stability from Risk Propagation
This work addresses financial stability for institutions and regulators by providing an AI-driven tool to shield against risk propagation, representing a domain-specific advancement.
The paper tackles the problem of detecting and mitigating financial risk propagation across temporal and spatial dimensions in unlabeled data, introducing GraphShield with innovations in dynamic graph learning, risk recognition, and visualization, achieving robust performance on four datasets.
Financial risks can propagate across both tightly coupled temporal and spatial dimensions, posing significant threats to financial stability. Moreover, risks embedded in unlabeled data are often difficult to detect. To address these challenges, we introduce GraphShield, a novel approach with three key innovations: Enhanced Cross-Domain Infor mation Learning: We propose a dynamic graph learning module to improve information learning across temporal and spatial domains. Advanced Risk Recognition: By leveraging the clustering characteristics of risks, we construct a risk recognizing module to enhance the identification of hidden threats. Risk Propagation Visualization: We provide a visualization tool for quantifying and validating nodes that trigger widespread cascading risks. Extensive experiments on two real-world and two open-source datasets demonstrate the robust performance of our framework. Our approach represents a significant advancement in leveraging artificial intelligence to enhance financial stability, offering a powerful solution to mitigate the spread of risks within financial networks.