Beyond Visual CoT: Internalized Visual Thinking for Proactive Video Reasoning
Summary
The paper introduces Internalized Visual Thinking (IVT), a post-training framework that trains multimodal models to predict future frame embeddings, enabling direct answer generation without synthesizing intermediate images, thereby reducing latency over 5x for proactive video reasoning.
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Paper page - Beyond Visual CoT: Internalized Visual Thinking for Proactive Video Reasoning
Source: https://huggingface.co/papers/2608.15869
Abstract
Internalized Visual Thinking trains multimodal models to predict future frame embeddings during post-training, enabling direct answer generation at inference without synthesizing intermediate images and cutting latency over fivefold.
Multimodal large language modelsincreasingly use visual chain-of-thought (Visual CoT) to reason about spatial, temporal, and embodied environments. By generating intermediate reasoning images,Visual CoTprovides an intuitive mechanism for visual foresight but introduces substantial inference overhead, which is particularly problematic forproactive video reasoning. We ask whether models can learn to think visually during training while reasoning directly at inference. We introduceInternalized Visual Thinking(IVT), a post-training framework that jointly optimizes textual prediction andnext-embedding predictionover unlabeled videos. Given a partially observed video, IVT predicts latent representations of future frames together with the target textual answer, encouraging the model to capture motion, object transitions, interactions, and latent intent. At inference, IVT generates the answer directly without synthesizing or re-encoding future frames. We conduct controlled studies across target representations, decoder designs, prediction horizons, data mixtures, training curricula, and predictive objectives. IVT improves over direct-answer fine-tuning on all six evaluation settings while retaining the same inference pathway. Compared with explicitVisual CoT, IVT achieves comparable or better performance and reduces average end-to-end latency by more than 5x. Together, our findings suggest that explicit pixel-space generation at inference time, as used in visual chain-of-thought, may not be necessary for effectiveproactive video reasoning.Predictive world modelingcan be internalized during training to produce multimodal reasoners that are both more accurate and substantially more efficient.
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