MATEO: A Multimodal Benchmark for Temporal Reasoning and Planning in LVLMs
Gabriel Roccabruna, Olha Khomyn, Giuseppe Riccardi

TL;DR
MATEO is a new benchmark designed to evaluate and enhance the ability of large vision-language models to understand and reason about complex, temporally ordered multimodal instructions for real-world planning tasks.
Contribution
The paper introduces MATEO, a comprehensive multimodal benchmark with a high-quality recipe corpus and TEO annotations, enabling systematic assessment of LVLMs' temporal reasoning capabilities.
Findings
LVLMs show varying performance on temporal reasoning tasks
Fine-tuning strategies impact model understanding of temporal order
Multimodal input structure influences reasoning accuracy
Abstract
AI agents need to plan to achieve complex goals that involve orchestrating perception, sub-goal decomposition, and execution. These plans consist of ordered steps structured according to a Temporal Execution Order (TEO, a directed acyclic graph that ensures each step executes only after its preconditions are satisfied. Existing research on foundational models' understanding of temporal execution is limited to automatically derived annotations, approximations of the TEO as a linear chain, or text-only inputs. To address this gap, we introduce MATEO (MultimodAl Temporal Execution Order), a benchmark designed to assess and improve the temporal reasoning abilities of Large Vision Language Models (LVLMs) required for real-world planning. We acquire a high-quality professional multimodal recipe corpus, authored through a standardized editorial process that decomposes instructions into…
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Taxonomy
TopicsMultimodal Machine Learning Applications · AI-based Problem Solving and Planning · Constraint Satisfaction and Optimization
