Learning Transferable Latent User Preferences for Human-Aligned Decision Making
summary
The gist
The gist The CLIPR framework introduces an LLM-based system that learns actionable, transferable natural language rules representing latent user preferences from minimal conversational input to guide
In short
CLIPR is a framework that learns explicit, natural language rules representing hidden user preferences from conversations. It elicits these rules from dialogue and uses them at inference time to guide the LLM toward human-aligned decisions. This method outperforms costly continual feedback by learning transferable rules that generalize across different scenarios and models.
Key concepts
- Latent User Preferences
- These are the hidden, unstated desires or guidelines users have for how ambiguous situations should be resolved. CLIPR aims to capture these preferences by extracting them from user conversations rather than relying on explicit instructions, allowing the agent to make decisions that align with the user's true intent.
- Preference Rule Critic
- This component monitors the agent's performance and decides when it is beneficial to update the learned preference rules. It uses specific metrics to determine if current rules are causing poor decision-making, triggering a refinement process only when necessary, thus saving computational effort.
- Transferable Rules
- The rules learned by CLIPR are designed to be general and applicable across different environments and tasks. This means the preference structures captured are semantic rather than tied to a single model or specific context, allowing the agent to maintain consistent decision-making even when faced with new, unseen situations.
- Preference-Aligned Accuracy
- This metric measures how well the agent's responses satisfy both explicit user requests and the inferred latent preference constraints. A high score indicates that the decisions made by the LLM are not only correct according to stated goals but also align with what is implicitly preferred by the user.
Terminology used across episodes
This episode discusses
- Learning Transferable Latent User Preferences for Human-Aligned Decision Making · Paper Radio
- Do As I Can, Not As I Say: Grounding Language in Robotic Affordances
- Code as Policies: Language Model Programs for Embodied Control
- RRHF: Rank Responses to Align Language Models with Human Feedback without tears
- Group Preference Optimization: Few-Shot Alignment of Large Language Models
The paper
Learning Transferable Latent User Preferences for Human-Aligned Decision Making · Read on arXiv
Alina Hyk, Sandhya Saisubramanian
Oregon State University
Large language models (LLMs) are increasingly used as reasoning modules in many applications, yet they often struggle to produce human-aligned decisions. Human-aligned decision-making requires accounting for both explicitly stated goals and latent user preferences that shape how ambiguous situations should be resolved. Existing approaches either learn these preferences through continual per-interaction feedback, which is costly for both the user and the agent, or keep them implicit in dialogue transcripts or example sets tied to a single model. We present CLIPR (Conversational Learning for Inferring Preferences and Reasoning), a framework that represents user's preferences as an explicit, compact set of natural-language rules used at inference time for human-aligned decision-making. CLIPR elicits these rules from conversational input, monitors decision accuracy, and consults the user when performance degrades unexpectedly. CLIPR revises the learned rules, based on the conversation, only if it does not reduce accuracy on scenarios already processed. Evaluations on three preference-ambiguous datasets show that CLIPR matches or outperforms baselines while using up to 96% fewer LLM calls than continual-feedback preference learning. Our results also show that rules learned by one LLM transfer unchanged to others, and that our approach can recover from corrupted rules. In a user study with 30 participants, CLIPR outperformed baselines and was rated as requiring less effort than continual-feedback learning.
Transcript
Introduction to the show: ident: AI Radio. Generated commentary on the latest Artificial Intelligence papers.
Tom: We're looking at the paper: "Learning Transferable Latent User Preferences for Human-Aligned Decision Making".
Jane: Here's the gist of the paper. The gist The CLIPR framework introduces an LLM-based system that learns actionable, transferable natural language rules representing latent user preferences from minimal conversational input to guide human-aligned decision making.
Tom: How it works CLIPR is a framework that learns preference information by interacting with the user and encoding it into "actionable, natural language rules that generalize across environments and tasks".
Jane: These rules are iteratively refined through adaptive feedback and applied to both in-distribution and out-of-distribution ambiguous tasks across multiple environments.
Tom: The learning process involves several key steps: 1.
Paper summary: Tom: So we’ve seen that CLIPR is this framework that learns actionable, transferable natural language rules from minimal conversational input to guide decision making. The core idea here is moving away from learning preferences through heavy feedback and instead extracting them as explicit, generalizable rules.
Jane: It sounds like the big claim is that these learned rules represent latent user preferences in a compact way, which lets the LLM use them at inference time to make decisions aligned with what a human actually wants. This addresses the problem of ambiguity in situations where there isn't an explicit instruction.
Lu: They are tackling the limitation that previous alignment methods, like RLHF or few-shot learning, often impose restrictive assumptions on preference structure and rely too much on indirect signals like rankings or demonstrations. CLIPR tries to use dynamic natural language interaction to infer intent more directly.
Meng: But how does it synthesize those rules from the conversation? Is it just summarizing what we talked about, or is there a deeper representation learning happening underneath that I need to worry about for deployment?
Lalam: Algorithm one shows that the LLM analyzes examples and dialogue history together to find underspecified preference dimensions <ref:2605.12682#pg1>. If those dimensions are insufficient, it generates a question for the user, collects the answer, and then synthesizes those rules from the combined dialogue and example set.
Tom: So it’s not just pattern matching; it’s an active elicitation process where the model actively seeks out what it doesn't know based on its current understanding of your goals. That sounds more like reasoning than just memorizing examples.
Jane: And they explicitly mention that this approach aims to extract actionable rules that are generalizable to a family of tasks, which is a big deal for practical application outside of one specific scenario.
Meng: If those rules are transferable, it means we could potentially deploy one set of preference rules across several different applications without needing extensive retraining for each one. That sounds like a significant win for engineering costs.
Lalam: The paper also points out that the method makes it difficult to capture complex or context-dependent preferences, although they note an exception called CIPHER which learns preferences through natural language feedback without requiring demonstrations, but that approach has high computational costs because it constantly needs feedback.
Tom: So CLIPR is trading off the constant need for feedback for the ability to generate rules that are reusable across different tasks. It's a trade-off between learning speed and generalization power.
Jane: And what they’ve shown empirically on datasets like AmbiK, Housekeep, and Mobile Manipulation is that it performs well in both in-distribution and out-of-distribution settings without needing to be retrained for those new environments.
Meng: That's the reality we need for production models. If it generalizes without retraining when faced with a slightly different task context, that reduces the maintenance burden considerably.
Lu: And their results on robustness are also telling; they showed that the learned rules are cross-model portable, meaning they aren't just artifacts of one specific LLM architecture, but they capture structures relevant to the preferences themselves.
Lalam: Plus, it showed it can recover from corrupted rules too, which is something you have to worry about when you're building a system that relies on learned internal states.
Tom: So the overall message is that we can get a more direct way for LLMs to understand user intent by learning explicit rules instead of just relying on implicit signals from interaction history.
Conclusion: Jane: So to wrap up, the paper "Learning Transferable Latent User Preferences for Human-Aligned Decision Making" by Hyk and Saisubramanian is suggesting that we can get LLMs to be better at handling ambiguous situations by learning explicit rules about user preferences.
Tom: The key implication is that instead of trying to fine-tune the model weights constantly through Reinforcement Learning from Human Feedback, we can extract a set of natural language rules and use those rules directly during inference for alignment.
Lu: This shifts the focus from making the model itself perfectly aligned internally to building a system that effectively extracts and manages these high-level preference instructions.
Meng: For someone running an AI service at scale, this means less reliance on massive amounts of continuous human interaction just to keep the preferences updated across your entire user base.
Jane: It’s about creating an internal, consistent model of user intent that is learned in a structured way and then applied directly to decision making without needing constant, expensive retraining cycles.
Lalam: The authors successfully demonstrated that this method can be cost-aware while still achieving high alignment accuracy on preference-ambiguous tasks.
Tom: It’s about being efficient, using minimal LLM calls compared to other learning methods, and getting a result that is portable across different tasks. That's the practical side of this research.
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