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Simulation reveals critical congestion points in a three-line subway station, suggesting optimized evacuation routes.
The study investigates emergency evacuation strategies for high‐capacity multi‐line transfer metro stations, with a focused examination on congestion dynamics induced by interweaving passenger flows. Taking a three‐line interchange station in Xi'an, China, as an example, a 3D emergency evacuation physical model was established using AnyLogic software, with pedestrian parameters and behavioural logic for security checks, level transfers, and evacuation configured through Java programming. Observations from a scenario involving 2200 passengers revealed that safety exits B, C and E, along with escalator groups 1 and 4 in high‐traffic areas, were the station's evacuation bottlenecks, leading to congestion and stampede risks. Pedestrians tended to choose the nearest exits, resulting in a peak density of up to 3.79 persons/m 2 . To address these challenges, this study proposed two optimised evacuation routes. After optimisation, evacuation time was significantly reduced by over 10%, meeting safety requirements. These findings contribute to improving emergency evacuation strategies for complex multi‐line subway stations.
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Wang et al. (2025) studied this question.
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