Interpreting and Controlling Model Behavior via Constitutions for Atomic Concept Edits
Neha Kalibhat, Zi Wang, Prasoon Bajpai, Drew Proud, Wenjun Zeng, Been Kim, Mani Malek

TL;DR
This paper presents a framework that learns natural language summaries, called constitutions, to interpret and control model behavior through atomic concept edits, enabling predictable and verifiable prompt modifications.
Contribution
It introduces a novel black-box interpretability method using atomic concept edits to learn verifiable constitutions that control and understand model behavior.
Findings
Constitutions significantly improve control over model outputs.
Different models focus on different aspects like grammatical adherence and atmospheric coherence.
Atomic concept edits boost success rates by an average of 1.86 times.
Abstract
We introduce a black-box interpretability framework that learns a verifiable constitution: a natural language summary of how changes to a prompt affect a model's specific behavior, such as its alignment, correctness, or adherence to constraints. Our method leverages atomic concept edits (ACEs), which are targeted operations that add, remove, or replace an interpretable concept in the input prompt. By systematically applying ACEs and observing the resulting effects on model behavior across various tasks, our framework learns a causal mapping from edits to predictable outcomes. This learned constitution provides deep, generalizable insights into the model. Empirically, we validate our approach across diverse tasks, including mathematical reasoning and text-to-image alignment, for controlling and understanding model behavior. We found that for text-to-image generation, GPT-Image tends to…
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Taxonomy
TopicsMultimodal Machine Learning Applications · Topic Modeling · Machine Learning in Materials Science
