ExplainabilityTransparencyTrustworthinesscs.LG
Robust Explanations Through Uncertainty Decomposition: A Path to Trustworthier AI
Chenrui Zhu, Louenas Bounia, Vu Linh Nguyen, Sébastien Destercke, Arthur Hoarau
July 17, 2025
arXiv.org
2 citations
Key Takeaways
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AI systems should admit when they're uncertain: The paper distinguishes between two types of uncertainty—data-related (aleatoric) and model-related (epistemic)—showing that epistemic uncertainty can serve as a "rejection criterion" to flag when an AI system's explanations are unreliable rather than presenting confident but potentially misleading answers.
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Uncertainty can improve trustworthiness more than explanations alone: Rather than relying solely on traditional explainability methods, the research demonstrates that incorporating uncertainty quantification makes AI explanations more robust and trustworthy across both traditional machine learning and deep learning systems.
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Different situations require different types of explanations: The paper shows that aleatoric uncertainty should guide whether to use feature-importance explanations (showing which inputs matter most) versus counterfactual explanations (showing what would need to change for a different outcome), suggesting one-size-fits-all explanation approaches are insufficient.
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Insufficient training is itself valuable information: By identifying epistemic uncertainty as a form of explanation, the research highlights that acknowledging when a model hasn't been trained adequately on certain types of data is itself useful information for users evaluating AI reliability.
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Transparency requires multiple complementary approaches: The findings suggest that trustworthy AI requires combining traditional explainability methods with uncertainty awareness rather than treating them as separate concerns, addressing the growing opacity of complex AI architectures.