Weakly supervised concept Bottleneck Learning for Robust Two stage Object centric visual reasoning

📅 2026-08-23
📈 Citations: 0
Influential: 0
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🤖 AI Summary
本文提出D-OCB框架,通过极弱监督提取符号谓词,并动态调整损失平衡系数和维度分配,以提高概念准确性和视觉推理性能。
📝 Abstract
Two-stage neuro-symbolic architectures provide an elegant paradigm for visual problem solving by cleanly separating connectionist perception of predefined symbols from possibly later defined relational reasoning thereon. However, anchoring high-level predicates into visual frames typically necessitates annotations that are expensive to acquire. In this work, we introduce the Dynamic Orthogonal Concept Bottleneck (D-OCB), an object-centric slot- VAE framework designed to extract human-aligned symbolic predicates under extremely weak supervision. D-OCB eliminates the arduous manual tuning of loss-balancing coef- ficients by dynamically learning optimal hyperparameter allocations during training. To infuse prior knowledge on independence of concept categories, in addition to standard re- construction self-supervision we penalize correlation across concept subspaces. Crucially, to combat the instability of very low supervision regimes, D-OCB incorporates a dynamic di- mensionality allocation mechanism; this adaptive formulation allows well-represented con- cepts to yield latent dimensions to underperforming concepts that are lagging behind, effectively preventing representation collapse and significantly improving overall concept accuracy. Through an extensive empirical evaluation, we demonstrate that our framework achieves high concept alignment and downstream visual reasoning accuracy using minimal label budgets, matching or outperforming end-to-end paradigms.
Problem

Research questions and friction points this paper is trying to address.

Weak Supervision
Concept Bottleneck
Object-centric
Visual Reasoning
Symbolic Predicates
Innovation

Methods, ideas, or system contributions that make the work stand out.

Dynamic Orthogonal Concept Bottleneck (D-OCB)
object-centric slot-VAE
weak supervision
dynamic hyperparameter allocation
latent dimension allocation
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