Kathy Garcia
ICLR 2025 🥇 Best Oral · LatinX in AI @ ICML 2024 📰 WSJ · PopSci · Marketplace

Modeling Dynamic Social Vision Highlights Gaps Between Deep Learning and Humans

Johns Hopkins University  ·  *equal contribution
Method overview: 350+ models predict behavioral ratings and fMRI responses to 3-second social videos
Representations from 350+ image, video, and language models predict human ratings and fMRI responses to 3-second social videos.

00Overview

Vision models are great models of how we recognize objects and scenes — but real vision is dynamic and social. Benchmarking 350+ models on social videos reveals a major gap: no model class matches human social vision, and each fails in a different way.

350+
image, video & language models
3
model modalities compared head-to-head
fMRI
+ behavioral ratings as benchmarks

Most evidence that deep networks are good models of human vision comes from static images of objects and scenes. We present a dataset of natural videos and captions of multi-agent interactions and benchmark models on behavioral and neural responses. As in prior work, many vision models reach the noise ceiling for visual scene features and the ventral stream. But image models poorly predict action and social-interaction ratings and responses in the lateral stream, a pathway increasingly thought to specialize in dynamic, social vision.

01Who wins where?

Each model family has a different profile. Pick one:

BenchmarkImageVideoLanguage
Visuospatial ratingstop model per ratingsimilar on averagesimilar on average
Action & social ratingspoorbelow languagebest
Ventral streammany models near ceilingmany models near ceiling—
Lateral mid-level (MT, EBA, LOC)poorbest (p < 0.001)poor

02Results

Prediction of behavioral ratings by model class
Behavioral ratings. Average performance of image, video, and language models on each rating. More image models were tested, so the single best model is biased toward images; for visuospatial ratings no class is better on average (p > 0.05).
Prediction of neural responses by ROI and model class
Neural responses by ROI. Video models dramatically outperform image models in MT, EBA, and LOC (ps < 0.001); differences in EVC, pSTS, and aSTS are not significant.
Voxel-wise encoding performance maps for image, video, and language models
Test-set encoding performance. Best-layer performance per voxel for (A) image, (B) video, and (C) language models on the lateral and ventral surface of one participant.
Whole-brain hierarchical alignment
Whole-brain hierarchical alignment. Relative depth of the best-performing layer across vision models.
Performance by architecture and training objective
Architecture and training. Within image models, convolutional vs. transformer and supervised vs. self-supervised make no notable difference.
Performance by learning objective on behavioral ratings
Learning objective (ResNet-50 models). Supervised vs. self-supervised on behavioral ratings; gray bars show the noise ceiling.

03What language models rely on

We selectively perturbed the sentence captions to test which parts of a description drive alignment with behavior and the brain.

Sentence perturbations and effect on behavioral alignment
(A) Example perturbations. (B) Each language model's performance on behavioral ratings after perturbation; asterisks mark significant degradation relative to the unperturbed sentence.
Effect of caption perturbations on neural prediction
Neural alignment after perturbation. Average ROI performance of each language model; asterisks mark significant degradation.

04Hierarchy, architecture & objective across ROIs

Relative layer depth of best layer per lateral ROI
Hierarchical alignment. Relative depth (0 = input, 1 = output) of each model's best layer per lateral ROI, suggesting a lack of hierarchical alignment in lateral regions.
Performance by architecture across ROIs
Architecture across ROIs. Convolutional and transformer models perform similarly in both ventral and lateral ROIs.
Performance by learning objective across ROIs
Learning objective across ROIs. Supervised vs. self-supervised training.

05Takeaways

A major gap. All model classes fall short of human responses to dynamic social scenes.
Brain ≠ behavior. Language models best predict human behavioral ratings, while video models best predict lateral brain regions.
Study vision in motion. These results highlight the importance of studying vision in dynamic, natural contexts.

In the press

06Citation

@inproceedings{garcia2025modeling,
  title     = {Modeling Dynamic Social Vision Highlights Gaps Between
               Deep Learning and Humans},
  author    = {Garcia, Kathy and McMahon, Emalie and Conwell, Colin
               and Bonner, Michael F. and Isik, Leyla},
  booktitle = {International Conference on Learning Representations (ICLR)},
  year      = {2025},
  url       = {https://openreview.net/forum?id=wAXsx2MYgV}
}