CogRail: Benchmarking VLMs in Cognitive Intrusion Perception for Intelligent Railway Transportation Systems

πŸ“… 2026-01-14
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Existing railway intrusion detection systems struggle to effectively perceive potential risk objects due to a lack of comprehensive understanding of both spatial context and temporal dynamics. To address this limitation, this work proposes CogRailβ€”the first multimodal benchmark tailored for cognitive-aware railway intrusion perception. CogRail introduces cognition-driven question-answering annotations to support spatiotemporal reasoning and develops a multi-task joint fine-tuning framework that simultaneously optimizes vision-language models for location awareness, motion prediction, and threat analysis. Experimental results demonstrate that general-purpose multimodal models exhibit limited performance on this task, whereas the proposed approach significantly improves both accuracy and interpretability, advancing the specialization of vision-language models for safety-critical applications.

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πŸ“ Abstract
Accurate and early perception of potential intrusion targets is essential for ensuring the safety of railway transportation systems. However, most existing systems focus narrowly on object classification within fixed visual scopes and apply rule-based heuristics to determine intrusion status, often overlooking targets that pose latent intrusion risks. Anticipating such risks requires the cognition of spatial context and temporal dynamics for the object of interest (OOI), which presents challenges for conventional visual models. To facilitate deep intrusion perception, we introduce a novel benchmark, CogRail, which integrates curated open-source datasets with cognitively driven question-answer annotations to support spatio-temporal reasoning and prediction. Building upon this benchmark, we conduct a systematic evaluation of state-of-the-art visual-language models (VLMs) using multimodal prompts to identify their strengths and limitations in this domain. Furthermore, we fine-tune VLMs for better performance and propose a joint fine-tuning framework that integrates three core tasks, position perception, movement prediction, and threat analysis, facilitating effective adaptation of general-purpose foundation models into specialized models tailored for cognitive intrusion perception. Extensive experiments reveal that current large-scale multimodal models struggle with the complex spatial-temporal reasoning required by the cognitive intrusion perception task, underscoring the limitations of existing foundation models in this safety-critical domain. In contrast, our proposed joint fine-tuning framework significantly enhances model performance by enabling targeted adaptation to domain-specific reasoning demands, highlighting the advantages of structured multi-task learning in improving both accuracy and interpretability. Code will be available at https://github.com/Hub-Tian/CogRail.
Problem

Research questions and friction points this paper is trying to address.

cognitive intrusion perception
railway transportation safety
spatio-temporal reasoning
visual-language models
latent intrusion risk
Innovation

Methods, ideas, or system contributions that make the work stand out.

cognitive intrusion perception
visual-language models
spatio-temporal reasoning
joint fine-tuning
railway safety benchmark
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