SITE: towards Spatial Intelligence Thorough Evaluation
Wenqi Wang, Reuben Tan, Pengyue Zhu, Jianwei Yang, Zhengyuan Yang, Lijuan Wang, Andrey Kolobov, Jianfeng Gao, Boqing Gong
TL;DR
SITE presents a comprehensive spatial intelligence benchmark for large vision-language models by unifying tasks from 31 datasets and adding two novel view-taking and dynamic tasks, all reformulated as MC-VQA. It combines bottom-up data collection with a top-down cognitive-science taxonomy to cover figural, vista, and environmental scales, as well as intrinsic/extrinsic and static/dynamic factors. Evaluations across 9 models reveal a substantial gap to human performance, particularly in spatial orientation and multi-view reasoning, while exposing a strong link between spatial intelligence and embodied robotics performance ($r=0.902$). The work highlights the need for viewpoint- and dynamics-aware training in VLMs and provides a scalable, cross-domain platform for ongoing SI assessment with practical implications for embodied AI systems.
Abstract
Spatial intelligence (SI) represents a cognitive ability encompassing the visualization, manipulation, and reasoning about spatial relationships, underpinning disciplines from neuroscience to robotics. We introduce SITE, a benchmark dataset towards SI Thorough Evaluation in a standardized format of multi-choice visual question-answering, designed to assess large vision-language models' spatial intelligence across diverse visual modalities (single-image, multi-image, and video) and SI factors (figural to environmental scales, spatial visualization and orientation, intrinsic and extrinsic, static and dynamic). Our approach to curating the benchmark combines a bottom-up survey about 31 existing datasets and a top-down strategy drawing upon three classification systems in cognitive science, which prompt us to design two novel types of tasks about view-taking and dynamic scenes. Extensive experiments reveal that leading models fall behind human experts especially in spatial orientation, a fundamental SI factor. Moreover, we demonstrate a positive correlation between a model's spatial reasoning proficiency and its performance on an embodied AI task.
