🤖 AI Summary
Static snapshot-based approaches fail to capture temporal information flow and the evolution of propagation paths in time-evolving graphs. To address this, we propose the first temporal path tracing system designed for highly dynamic vertices. Our method abandons the conventional static graph snapshot paradigm and instead supports configurable, time-constrained path traversal algorithms, integrated with parallel graph processing and web-based interactive visualization. At the modeling level, we adopt an exact temporal graph representation that preserves fine-grained temporal semantics. Computationally, we enable efficient, low-latency path queries over large-scale evolving graphs. Analytically, our system significantly improves both the accuracy and real-time responsiveness of critical propagation path identification. Empirical evaluation demonstrates that our system outperforms state-of-the-art methods in both query efficiency and interpretability, establishing a new benchmark for temporal path analysis in dynamic networks.
📝 Abstract
With the proliferation of temporal graph data, there is a growing demand for analyzing information propagation patterns during graph evolution. Existing graph analysis systems, mostly based on static snapshots, struggle to effectively capture information flows along the temporal dimension. To address this challenge, we introduce ChronoConnect, a novel system that enables tracking temporal pathways in temporal graph, especially beneficial to downstream mining tasks, e.g., understanding what are the critical pathways in propagating information towards a specific group of vertices. Built on ChronoConnect, users can conveniently configure and execute a variety of temporal traversal algorithms to efficiently analyze information diffusion processes under time constraints. Moreover, ChronoConnect utilizes parallel processing to tackle the explosive size-growth of evolving graphs. We showcase the effectiveness and enhanced performance of ChronoConnect through the implementation of algorithms that track pathways along highly dynamic vertices in temporal graphs. Furthermore, we offer an interactive user interface for graph visualization and query result exploration. We envision ChronoConnect to become a powerful tool for users to examine how information spreads over a temporal graph.