mlsanityData to 14 Oct 2026

Direct Preference Optimization for Adaptive Concept-based Explanations

arXiv 2505.15626 ↗First posted 21 May 2025cs.LG stat.MLcited by 0

On the map: LLM alignment / RLHF / preference optimisation → Human values and AI feedback alignment

Abstract (arXiv)

Concept-based explanation methods aim at making machine learning models more transparent by finding the most important semantic features of an input (e.g., colors, patterns, shapes) for a given prediction task. However, these methods generally ignore the communicative context of explanations, such as the preferences of a listener. For example, medical doctors understand explanations in terms of clinical markers, but patients may not, needing a different vocabulary to rationalize the same diagnosis. We address this gap with listener-adaptive explanations grounded in principles of pragmatic reasoning and the rational speech act. We introduce an iterative training procedure based on direct preference optimization where a speaker learns to compose explanations that maximize communicative utility for a listener. Our approach only needs access to pairwise preferences, which can be collected from human feedback, making it particularly relevant in real-world scenarios where a model of the listener may not be available. We demonstrate that our method is able to align speakers with the preferences of simulated listeners on image classification across three datasets, and further validate that pragmatic explanations generated with our method improve the classification accuracy of participants in a user study.

Key facts. No citing papers in the map yet (data through 14 Oct 2026). Placed in Human values and AI feedback alignment, one of 10 directions in LLM alignment / RLHF / preference optimisation. Builds on 75 of its 119 references that are in the map. First posted on arXiv 21 May 2025.

Builds on

75 of 119 references.

References · 75

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38 more
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  1. 2023T-COL: Generating Counterfactual Explanations for General User Preferences on Variable Machine Learning Systems
  2. 2025Multi-Domain Explainability of Preferences
  3. 2026Computational models of pragmatic reasoning with flexible generation of meaning and expression alternatives
  4. 2026BIRD: Distilling Decision Boundaries into Rationales for MLLM Adaptation
  5. 2025Explainable Recommendation with Simulated Human Feedback
  6. 2026Human Label Variation as Stable Signal: Learning Annotator-Specific Explanation Behavior via Cross-Annotator Preference Optimization
  7. 2024Integrating Physician Diagnostic Logic into Large Language Models: Preference Learning from Process Feedback
  8. 2024Improving Context-Aware Preference Modeling for Language Models