Decoding Scientific Experimental Images: The SPUR Benchmark for Perception, Understanding, and Reasoning

Fuente: arXiv
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Autores principales: Ding, Junpeng, Tang, Zichen, E, Haihong, Ji, Mengyuan, Liu, Yang, Tian, Haolin, Sun, Haiyang, Sun, Pengqi, Xu, Yang, Liu, Yichen, Gao, Haocheng, Xi, Zijie, Jiang, Ruomeng, Zhao, Peizhi, Li, Rongjin, Li, Yuanze, Liu, Jiacheng, Yang, Zhongjun, Chen, Jintong, Lin, Siying
Formato: Preprint
Publicado: 2026
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author Ding, Junpeng
Tang, Zichen
E, Haihong
Ji, Mengyuan
Liu, Yang
Tian, Haolin
Sun, Haiyang
Sun, Pengqi
Xu, Yang
Liu, Yichen
Gao, Haocheng
Xi, Zijie
Jiang, Ruomeng
Zhao, Peizhi
Li, Rongjin
Li, Yuanze
Liu, Jiacheng
Yang, Zhongjun
Chen, Jintong
Lin, Siying
author_facet Ding, Junpeng
Tang, Zichen
E, Haihong
Ji, Mengyuan
Liu, Yang
Tian, Haolin
Sun, Haiyang
Sun, Pengqi
Xu, Yang
Liu, Yichen
Gao, Haocheng
Xi, Zijie
Jiang, Ruomeng
Zhao, Peizhi
Li, Rongjin
Li, Yuanze
Liu, Jiacheng
Yang, Zhongjun
Chen, Jintong
Lin, Siying
contents We introduce SPUR, a comprehensive benchmark for scientific experimental image perception, understanding, and reasoning, comprising 4,264 question-answering (QA) pairs derived from 1,084 expert-curated images. SPUR features three key innovations: (1) Panel-Level Fine-Grained Perception: evaluating the visual perception of multimodal large language models (MLLMs) across three dimensions (numerical, morphological, and information localization) on six fine-grained panel types; (2) Cross-Panel Relation Understanding: utilizing complex images with an average of 14.3 panels per sample to evaluate MLLMs' ability to decipher intricate cross-panel relations; (3) Expert-Level Reasoning: assessment of qualitative and quantitative reasoning across five experimental paradigms to determine if models can infer conclusions from evidence as human experts do. Comprehensive evaluation of 20 MLLMs and four multimodal Chain-of-Thought (MCoT) methods reveals that current models fall significantly short of the expert-level requirements for scientific image interpretation, underscoring a critical bottleneck in AI for Science (AI4S) research.
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id arxiv_https___arxiv_org_abs_2604_27604
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Decoding Scientific Experimental Images: The SPUR Benchmark for Perception, Understanding, and Reasoning
Ding, Junpeng
Tang, Zichen
E, Haihong
Ji, Mengyuan
Liu, Yang
Tian, Haolin
Sun, Haiyang
Sun, Pengqi
Xu, Yang
Liu, Yichen
Gao, Haocheng
Xi, Zijie
Jiang, Ruomeng
Zhao, Peizhi
Li, Rongjin
Li, Yuanze
Liu, Jiacheng
Yang, Zhongjun
Chen, Jintong
Lin, Siying
Computer Vision and Pattern Recognition
Computational Engineering, Finance, and Science
We introduce SPUR, a comprehensive benchmark for scientific experimental image perception, understanding, and reasoning, comprising 4,264 question-answering (QA) pairs derived from 1,084 expert-curated images. SPUR features three key innovations: (1) Panel-Level Fine-Grained Perception: evaluating the visual perception of multimodal large language models (MLLMs) across three dimensions (numerical, morphological, and information localization) on six fine-grained panel types; (2) Cross-Panel Relation Understanding: utilizing complex images with an average of 14.3 panels per sample to evaluate MLLMs' ability to decipher intricate cross-panel relations; (3) Expert-Level Reasoning: assessment of qualitative and quantitative reasoning across five experimental paradigms to determine if models can infer conclusions from evidence as human experts do. Comprehensive evaluation of 20 MLLMs and four multimodal Chain-of-Thought (MCoT) methods reveals that current models fall significantly short of the expert-level requirements for scientific image interpretation, underscoring a critical bottleneck in AI for Science (AI4S) research.
title Decoding Scientific Experimental Images: The SPUR Benchmark for Perception, Understanding, and Reasoning
topic Computer Vision and Pattern Recognition
Computational Engineering, Finance, and Science
url https://arxiv.org/abs/2604.27604