Intervening in Black Box: Concept Bottleneck Model for Enhancing Human Neural Network Mutual Understanding

📅 2025-06-28
📈 Citations: 0
Influential: 0
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🤖 AI Summary
Increasing complexity of deep learning models degrades interpretability, and existing explanation methods are largely post-hoc, offering no mechanism to intervene in model behavior. Method: We propose CBM-HNMU—a Concept Bottleneck Model-based framework that (i) decomposes black-box decision logic via concept representations; (ii) automatically identifies and localizes harmful concepts through global gradient contribution analysis; and (iii) performs reverse optimization via concept replacement and knowledge distillation—without altering the original architecture. Contribution/Results: CBM-HNMU enables human-interpretable, bidirectional interaction and achieves automatic identification, correction, and performance enhancement of erroneous internal concepts. Evaluated across multiple datasets on both CNNs and Transformers, it improves average accuracy by 1.03% (up to 2.64%) while simultaneously enhancing interpretability and generalization.

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📝 Abstract
Recent advances in deep learning have led to increasingly complex models with deeper layers and more parameters, reducing interpretability and making their decisions harder to understand. While many methods explain black-box reasoning, most lack effective interventions or only operate at sample-level without modifying the model itself. To address this, we propose the Concept Bottleneck Model for Enhancing Human-Neural Network Mutual Understanding (CBM-HNMU). CBM-HNMU leverages the Concept Bottleneck Model (CBM) as an interpretable framework to approximate black-box reasoning and communicate conceptual understanding. Detrimental concepts are automatically identified and refined (removed/replaced) based on global gradient contributions. The modified CBM then distills corrected knowledge back into the black-box model, enhancing both interpretability and accuracy. We evaluate CBM-HNMU on various CNN and transformer-based models across Flower-102, CIFAR-10, CIFAR-100, FGVC-Aircraft, and CUB-200, achieving a maximum accuracy improvement of 2.64% and a maximum increase in average accuracy across 1.03%. Source code is available at: https://github.com/XiGuaBo/CBM-HNMU.
Problem

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

Enhancing interpretability of complex deep learning models
Enabling effective intervention in black-box model reasoning
Improving model accuracy through concept refinement
Innovation

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

Uses Concept Bottleneck Model for interpretability
Refines concepts via global gradient contributions
Distills corrected knowledge into black-box models
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