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arXiv · 2605.28818

Do VLMs Align Better with Humans than LLMs during Natural Reading?

Abstract

Large language models have become increasingly useful computational models of human language processing, but it remains open whether vision-language learning makes text representations more human-like during natural reading. We address this question by comparing matched LLM and vision-language model pairs under strictly text-only input and evaluating alignment with human brain activity (whole-cortex fMRI) and human behavior (synchronized regressive saccades). We identify a selective, rather than global, effect of vision-language training on human-model alignment. In the two within-lineage model pairs, VLMs more accurately predicted human regressive saccades, whereas VLMs and LLMs showed comparable whole-cortex fMRI alignment. However, sentence-level analyses revealed that the VLM advantage in fMRI alignment increased with the visual evocative strength of the sentences. Together, these findings provide a controlled in-silico comparison of multimodal training histories, showing that vision-language pretraining selectively improves model-human alignment via reading behavior and visually grounded content.

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Jinzhou Wu, Zhengwu Ma, Jixing Li, Baoping Tang, Zitong Lu. 2026-08-04. Do VLMs Align Better with Humans than LLMs during Natural Reading?. https://arxiv.org/abs/2605.28818

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