Score: 3

Decoupling the components of geometric understanding in Vision Language Models

Published: March 5, 2025 | arXiv ID: 2503.03840v1

By: Eliza Kosoy , Annya Dahmani , Andrew K. Lampinen and more

BigTech Affiliations: University of California, Berkeley Google

Potential Business Impact:

Computers struggle to grasp shapes like people do.

Business Areas:
Image Recognition Data and Analytics, Software

Understanding geometry relies heavily on vision. In this work, we evaluate whether state-of-the-art vision language models (VLMs) can understand simple geometric concepts. We use a paradigm from cognitive science that isolates visual understanding of simple geometry from the many other capabilities it is often conflated with such as reasoning and world knowledge. We compare model performance with human adults from the USA, as well as with prior research on human adults without formal education from an Amazonian indigenous group. We find that VLMs consistently underperform both groups of human adults, although they succeed with some concepts more than others. We also find that VLM geometric understanding is more brittle than human understanding, and is not robust when tasks require mental rotation. This work highlights interesting differences in the origin of geometric understanding in humans and machines -- e.g. from printed materials used in formal education vs. interactions with the physical world or a combination of the two -- and a small step toward understanding these differences.

Country of Origin
🇺🇸 United States

Page Count
8 pages

Category
Computer Science:
CV and Pattern Recognition