TRACE: Topology-Aware Reconnection via Prediction-Adaptive Connectivity Enforcement for Thin-Structure Segmentation
We propose TRACE, a topology-aware, prediction-adaptive objective that uses a target skeleton to define required local connections.
ProofPaper ↗
Key points
- Thin, elongated structures are particularly sensitive to connectivity errors, as even a few local segmentation mistakes can disrupt otherwise continuous paths.
- For each connection, TRACE identifies the easiest valid reconnection under the current prediction and jointly supervises its bottleneck with the corresponding skeleton point.
- We further introduce a topology-aware skeleton carrier that preserves both foreground and class-specific topology, enabling reliable definition of these connections.
- Extensive experiments across six 2D and 3D benchmarks show that TRACE improves connectivity and topology while maintaining strong segmentation accuracy with low training overhead.
Sources (1)
- [1]TRACE: Topology-Aware Reconnection via Prediction-Adaptive Connectivity Enforcement for Thin-Structure SegmentationarXiv (AI, ML, NLP, CV, robotics, multi-agent) · Oct 15, 04:58 PM
We propose TRACE, a topology-aware, prediction-adaptive objective that uses a target skeleton to define required local connections.
Thin, elongated structures are particularly sensitive to connectivity errors, as even a few local segmentation mistakes can disrupt otherwise continuous paths.
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