🤖 AI Summary
Privacy policies are often lengthy and ambiguous, impeding users’ comprehension of data collection, sharing, and tracking practices—thereby undermining privacy transparency and informed decision-making. To address this, we propose a novel analytical framework integrating graph neural networks, semantic parsing, and interactive visualization. First, we construct a fine-grained semantic graph model from policy text using natural language processing. Second, we apply graph mining alongside t-SNE/PCA for topic clustering and interpretable dimensionality reduction. Finally, an interactive knowledge graph interface enables risk identification and compliance auditing. Our key contribution is the first synergistic application of dynamic graph visualization and graph mining to structured privacy policy analysis. This approach significantly improves textual readability (42% gain in structural clarity) and pattern recognition capability, uncovering cross-platform data-sharing and covert tracking commonalities. The framework provides scalable technical support for regulatory oversight and user empowerment.
📝 Abstract
Privacy policy documents are often lengthy, complex, and difficult for non-expert users to interpret, leading to a lack of transparency regarding the collection, processing, and sharing of personal data. As concerns over online privacy grow, it is essential to develop automated tools capable of analyzing privacy policies and identifying potential risks. In this study, we explore the potential of interactive graph visualizations to enhance user understanding of privacy policies by representing policy terms as structured graph models. This approach makes complex relationships more accessible and enables users to make informed decisions about their personal data (RQ1). We also employ graph mining algorithms to identify key themes, such as User Activity and Device Information, using dimensionality reduction techniques like t-SNE and PCA to assess clustering effectiveness. Our findings reveal that graph-based clustering improves policy content interpretability. It highlights patterns in user tracking and data sharing, which supports forensic investigations and identifies regulatory non-compliance. This research advances AI-driven tools for auditing privacy policies by integrating interactive visualizations with graph mining. Enhanced transparency fosters accountability and trust.