Clinically-Grounded Hierarchical Classification for Consistent Chest X-ray Interpretation

• URL: http://arxiv.org/abs/2608.03016v1
• Date: Tue, 04 Aug 2026 01:59:12 GMT
• Title: Clinically-Grounded Hierarchical Classification for Consistent Chest X-ray Interpretation
• Abstract summary: CHASE mirrors radiologists' coarse-to-fine reasoning through a clinically driven three-level taxonomy of 9 anatomical regions, 17 sub-regions, and 28 pathological findings.<n> Experiments demonstrate that CHASE outperforms flat and hierarchical baselines across all levels.
• Score: 8.409132986888627
• License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
• Abstract: Accurate chest X-ray interpretation is inherently hierarchical. Clinical decisions depend not only on what abnormality is present but where it is situated, requiring reasoning from broad anatomical systems down to specific pathological findings. Yet existing automated systems largely treat this as a flat classification problem, failing to capture inter-level dependencies or enforce coherence between coarse and fine predictions. We propose CHASE (Classification with Hierarchical Analysis and Structured Enforcement), a unified single-stage framework that mirrors radiologists' coarse-to-fine reasoning through a clinically driven three-level taxonomy of 9 anatomical regions, 17 sub-regions, and 28 pathological findings. CHASE jointly optimizes multi-level supervision, cross-level probability alignment, and a hierarchy-violation penalty within a shared Vision Transformer backbone. This ensures that fine-grained findings are anatomically supported by their coarser-level context rather than predicted in isolation. Experiments demonstrate that CHASE outperforms flat and hierarchical baselines across all levels while achieving superior probabilistic hierarchy consistency, with level-wise attention maps confirming anatomically grounded predictions. Code is available at: https://github.com/yejix-ai/CHASE.

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