Learning from Disagreement: Clinician Overrides as Implicit Preference Signals for Clinical AI in Value-Based Care
On the map: LLM alignment / RLHF / preference optimisation → Medical LLM alignment
Abstract (arXiv)
We reframe clinician overrides of clinical AI recommendations as implicit preference data - the same signal structure exploited by reinforcement learning from human feedback (RLHF), but richer: the annotator is a domain expert, the alternatives carry real consequences, and downstream outcomes are observable. We present a formal framework extending standard preference learning with three contributions: a five-category override taxonomy mapping override types to distinct model update targets; a preference formulation conditioned on patient state s, organizational context c, and clinician capability kappa, where kappa decomposes into execution capability kappa-exec and alignment capability kappa-align; and a dual learning architecture that jointly trains a reward model and a capability model via alternating optimization, preventing a failure mode we term suppression bias-the systematic suppression of correct-but-difficult recommendations when clinician capability falls below the execution threshold. We argue that chronic disease management under outcome-based payment contracts produces override data with uniquely favorable properties-longitudinal density, concentrated decision space, outcome labels, and natural capability variation-and that training environments combining longitudinal outcome measurement with aligned financial incentives are a necessary condition for learning a reward model aligned with patient trajectory rather than with encounter economics. This framework emerged from operational work to improve clinician capability in a live value-based care deployment.
Key facts. Cited by 1 paper in the map (data through 14 Oct 2026). Placed in Medical LLM alignment, one of 10 directions in LLM alignment / RLHF / preference optimisation. Builds on 10 of its 35 references that are in the map. First posted on arXiv 30 Apr 2026.
Builds on
10 of 35 references.
References · 10
- 2022Training language models to follow instructions with human feedbackcited by 15,971
- 2023Direct Preference Optimization: Your Language Model is Secretly a Reward Modelcited by 8,065
- 2017Deep reinforcement learning from human preferencescited by 3,912
- 2022Training a Helpful and Harmless Assistant with Reinforcement Learning from Human Feedbackcited by 3,720
- 2023Open Problems and Fundamental Limitations of Reinforcement Learning from Human Feedbackcited by 759
- 2022The 'Problem' of Human Label Variation: On Ground Truth in Data, Modeling and Evaluationcited by 139
- 2023Inverse Preference Learning: Preference-based RL without a Reward Functioncited by 68
- 2023Ignore, Trust, or Negotiate: Understanding Clinician Acceptance of AI-Based Treatment Recommendations in Health Carecited by 37
- 2025Explicit Preference Optimization: No Need for an Implicit Reward Modelcited by 6
- 2024Pruning the Path to Optimal Care: Identifying Systematically Suboptimal Medical Decision-Making with Inverse Reinforcement Learningcited by 1
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Citing papers per year: 2026: 1.
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- 2024Exploring LLM-based Data Annotation Strategies for Medical Dialogue Preference Alignment
- 2026ClinAlign: Scaling Healthcare Alignment from Clinician Preference
- 2025Beyond Prediction: Reinforcement Learning as the Defining Leap in Healthcare AI
- 2025Doctor-R1: Mastering Clinical Inquiry with Experiential Agentic Reinforcement Learning
- 2026Patient-Centered Treatment Planning for Chronic Multimorbidity: A Hierarchical Reinforcement Learning Framework for Preference Modeling
- 2026Clinician input steers AI toward accurate and harmful recommendations
- 2026From Given to Gathered Evidence: Agentic Learning for Longitudinal Medical Reasoning
- 2025medDreamer: Model-Based Reinforcement Learning with Latent Imagination on Complex EHRs for Clinical Decision Support