Modelling Multimodal Integration in Human Concept Processing with Vision-and-Language Models

• URL: http://arxiv.org/abs/2407.17914v1
• Date: Thu, 25 Jul 2024 10:08:37 GMT
• Title: Modelling Multimodal Integration in Human Concept Processing with Vision-and-Language Models
• Authors: Anna Bavaresco, Marianne de Heer Kloots, Sandro Pezzelle, Raquel Fernández,
• Abstract summary: There is growing evidence that human meaning representations integrate linguistic and sensory-motor information. We investigate whether the integration of multimodal information leads to representations that are more aligned with human brain activity. Our results reveal that VLM representations correlate more strongly than language- and vision-only DNNs with activations in brain areas functionally related to language processing.
• Score: 7.511284868070148
• License: http://creativecommons.org/licenses/by/4.0/
• Abstract: Representations from deep neural networks (DNNs) have proven remarkably predictive of neural activity involved in both visual and linguistic processing. Despite these successes, most studies to date concern unimodal DNNs, encoding either visual or textual input but not both. Yet, there is growing evidence that human meaning representations integrate linguistic and sensory-motor information. Here we investigate whether the integration of multimodal information operated by current vision-and-language DNN models (VLMs) leads to representations that are more aligned with human brain activity than those obtained by language-only and vision-only DNNs. We focus on fMRI responses recorded while participants read concept words in the context of either a full sentence or an accompanying picture. Our results reveal that VLM representations correlate more strongly than language- and vision-only DNNs with activations in brain areas functionally related to language processing. A comparison between different types of visuo-linguistic architectures shows that recent generative VLMs tend to be less brain-aligned than previous architectures with lower performance on downstream applications. Moreover, through an additional analysis comparing brain vs. behavioural alignment across multiple VLMs, we show that -- with one remarkable exception -- representations that strongly align with behavioural judgments do not correlate highly with brain responses. This indicates that brain similarity does not go hand in hand with behavioural similarity, and vice versa.

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