Year: 2025
Type: conference-paper
Abstract: Understanding uncertainty in Explainable AI (XAI) is crucial for building trust and ensuring reliable decision-making in Machine Learning models. This paper introduces a unified framework for quantifying and interpreting Uncertainty in XAI by defining a general explanation function $$e_{\theta}(x, f)$$ e θ ( x , f ) that captures the propagation of uncertainty from key sources: perturbations in input data and model parameters. By using both analytical and empirical estimates of explanation variance, we provide a systematic means of assessing the impact uncertainty on explanations. We illustrate the approach using a first-order uncertainty propagation as the analytical estimator. In a comprehensive evaluation across heterogeneous datasets, we compare analytical and empirical estimates of uncertainty propagation and evaluate their robustness. Extending previous work on inconsistencies in explanations, our experiments identify XAI methods that do not reliably capture and propagate uncertainty. Our findings underscore the importance of uncertainty-aware explanations in high-stakes applications and offer new insights into the limitations of current XAI methods. The code for the experiments can be found in our repository: https://github.com/TeodorChiaburu/UXAI .
Authors: Teodor Chiaburu, Felix Bießmann, Frank Haußer
Language: English
Subfield: Artificial Intelligence
Field: Computer Science
Domain: Physical Sciences
Open Access status: hybrid
Awards: Berliner Initiative für Forschung im Bereich Foundation Models, KIP-SDM: KI in der Pflege - Sturz / Delir / Medikation, G7241646830, ProKIP: Prozessentwicklung und -begleitung zum KI-Einsatz in der Pflege, Verbundprojekt: RIWWER - Reduction of the Impact of untreated WasteWater on the Environment in case of torrential Rain, Teilvorhaben: Entwicklung einer Resilienten KI-Ausführungsumgebung für Cloud/Edge/Embedded in der Wasserwirtschaft, Verbundprojekt: RIWWER - Reduction of the Impact of untreated WasteWater on the Environment in case of torrential Rain, Teilvorhaben: Machine Learning Components for Automated Sewer systems
OpenAlex ID: W4415324924
