Crowded public spaces often present significant safety risks, as pedestrian emotions and behaviors suffered significant changes following emergency incidents. To examine the relevant impacts, this study establishes a large-scale subway simulation platform, modeling panic events, collision scenarios, and stampede incidents to assess the impact of emotional factors, luggage characteristics, crowd density, initial infection proportions, and personality traits on emergency evacuations. The results indicate that emotions must exceed a certain threshold to be triggered, and individuals with different personality traits exhibit varying sensitivities to emotional contagion, with openness (O-type) personalities being the most susceptible. Crowd density was identified as the primary factor determining evacuation efficiency, with high-density conditions significantly increasing evacuation times and exacerbating panic levels. In collision scenarios, pedestrians typically follow curved paths to avoid contact. Notably, increasing luggage weight alone tends to reduce overall evacuation time, whereas larger luggage size at a constant luggage weight prolong evacuation and increase stampede risk. This indicates that luggage size has a greater impact on evacuation outcomes than weight alone. The highest proportions of initial infectors generally raised panic, and this effect was accentuated under high-density conditions. Interestingly, higher initial infector proportions maintain some mitigating influence on panic, but their effectiveness diminishes when crowd density and physical encumbrance reach critical levels. Lastly, emergency evacuation efficiency is effectively improved by incorporating environmental familiarity into the leader-follower model. By illustrating how these factors interact to influence panic spread, collision avoidance, and stampede risk, our study offers a practical foundation for transit authorities to design evacuation drills, allocate resources, and optimize evacuation protocols, thereby enhancing safety and resilience in large-scale urban transit systems.
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