Replace random or degree-based graph positional anchors with a greedy set chosen to maximize the entropy of the graph's Weisfeiler-Lehman equivalence partition. Give each selected anchor a unique trainable embedding, then run several WL-inspired refinement rounds to produce positional cell features. The resulting positional signal should distinguish nodes that ordinary message passing treats identically while using only a small anchor budget.
Before message passing, repeatedly detect a pair of vertices with nested open neighborhoods and fold away the dominated vertex while preserving its information in the surviving vertex's feature state. The graph reduction is justified by homotopy invariance of the independence complex, while the feature merge prevents task-relevant attributes from being lost. Add a topology-aware ablation comparing this exact fold against random node pooling and standard learned pooling.