RVLM: Recursive Vision-Language Models with Adaptive Depth
Nicanor Mayumu, Zeenath Khan, Melodena Stephens, Patrick Mukala, Farhad Oroumchian

TL;DR
RVLM introduces an adaptive, iterative vision-language framework for medical AI that generates executable code for transparent reasoning and adjusts its depth based on task complexity, improving interpretability and efficiency.
Contribution
It proposes a unified framework combining iterative reasoning with adaptive depth control, enabling transparent, executable diagnostics in medical imaging without fine-tuning.
Findings
High consistency in salient findings detection
Effective cross-modal discrepancy identification
Structured report generation in chest X-ray analysis
Abstract
Medical AI systems face two fundamental limitations. First, conventional vision-language models (VLMs) perform single-pass inference, yielding black-box predictions that cannot be audited or explained in clinical terms. Second, iterative reasoning systems that expose intermediate steps rely on fixed iteration budgets wasting compute on simple cases while providing insufficient depth for complex ones. We address both limitations with a unified framework. RVLM replaces single-pass inference with an iterative generate-execute loop: at each step, the model writes Python code, invokes vision sub-agents, manipulates images, and accumulates evidence. Every diagnostic claim is grounded in executable code, satisfying auditability requirements of clinical AI governance frameworks. RRouter makes iteration depth adaptive: a lightweight controller predicts the optimal budget from task-complexity…
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Taxonomy
TopicsMultimodal Machine Learning Applications · Explainable Artificial Intelligence (XAI) · Domain Adaptation and Few-Shot Learning
