Foundation models such as GPT and Claude now solve olympiad-level mathematics with remarkable proficiency, so much so that geometry problem solving has become a standard proxy for their mathematical reasoning. Yet solving a geometry problem and drawing the figure it depends on are not the same skill: progress often hinges on a faithful diagram with the right auxiliary constructions and incidences, and it is unclear that a model which reasons its way to the answer can also produce one. A growing collection of benchmarks, including MathVista, and MathVerse, measures whether models reach the correct answer, but to our knowledge, none isolate the distinct ability to construct the diagram itself, leaving this capability unmeasured. We introduce an open-source benchmark that targets this gap: 954 self-contained olympiad geometry problems, with a 297-problem hard subset, each paired with its solution and a human-authored, high-fidelity diagram in renderable Asymptote code, together with a suite of text-, code-, image-, VLM-, and constraint-based metrics for what we term diagrammatic reasoning. Evaluating current foundation models reveals a pronounced gap between solving and drawing: their diagrams are markedly less faithful, with an average compile success rate of only 36.14\%. Strong mathematical reasoning, we find, does not imply the ability to construct accurate geometric diagrams. Our benchmark and dataset can be accessed at https://huggingface.co/datasets/max98765/hard_geometry_problems_with_diagrams.
PhysElite is presented, a large-scale bilingual multimodal benchmark for Olympiad-level physics reasoning that benchmarks 18 open-source and closed-source MLLMs, and finds that even the strongest model reaches only 33.7% answer accuracy.
Ruoran Xu, Wen-Ding Gao, Liyunfeng Chen et al.· 1 citation
IMO-CoT is introduced, a novel, selective, information-rich benchmark derived from International Mathematics Olympiad (IMO) problems, designed to evaluate CoT reasoning capabilities in LLMs.
Anurag Dutta, A. Ramamoorthy, M. G. Lakshmi et al.· Iran Journal of Computer Sci...· 0 citations
PolyComp, a procedurally generated and verified benchmark that stresses visual recognition and compositional spatial reasoning, is introduced, and the observed accuracy spread across geometry families is larger than across presentation formats.
The findings suggest that integrating computational geometry problems with digital tools can enrich traditional mathematics instruction, highlight the relevance of geometry in authentic contexts, and offer a promising and transferable context for developing CT alongside core geometry content in secondary mathematics ed...
R. Molano, MohammadHossein Homaei, M. Ávila et al.· International Electronic Jou...· 0 citations
This work proposes the Disentangled Spatial Reasoner (DiSR), a simple yet effective framework that reconstructs the physical world into structured 3D evidence using off-the-shelf expert perception models and fine-tunes an LLM with LoRA to perform reasoning solely over this explicit geometric evidence.
Haoze Sun, Jie-Quan Cui, Qingshan Xu et al.· 0 citations
The results show that state-of-the-art LLMs can solve much of the standard introductory physics problems, but that their performance remains uneven and constrained by problem modality and problem difficulty.
Amir Bralin, N. Rebello· arXiv.org· 0 citations
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