Authors :
Sharadhi A.K
Volume/Issue :
Volume 10 - 2025, Issue 3 - March
Google Scholar :
https://tinyurl.com/pz7mjfhv
Scribd :
https://tinyurl.com/2rhh58r6
DOI :
https://doi.org/10.38124/ijisrt/25mar1176
Google Scholar
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Abstract :
In recent years, crowd simulation has gained increasing attention due to its vast potential, especially in
architecture, urban planning, and disaster management fields. This involves creating computer-generated models that
simulate large groups' movement and behavior. Many simulation approaches, such as microscopic, macroscopic, and
mesoscopic models, can be used, each with its advantages and disadvantages. Analyzing the types and categories of crowd
simulations provides insight into the evolution of technology. Several studies dealing with urban planning implications
were examined to analyze each pedestrian flow model and to synthesize their strengths, weaknesses, and ethical
considerations. This review serves as a resource for urban development professionals, AI simulation specialists, and
researchers working at the intersection of crowd dynamics and city planning. Overall, this article presents a systematic
analysis of crowd simulation literature, elucidating current limitations, future trajectories and research opportunities for
enhanced efficiency and realism.
Keywords :
Crowd simulation; Computer graphics; Intelligent Agents; Boids; Pedestrian Crowds; Multi-scale Modelling; Group Dynamics; Real-time simulation; Urban Systems; Resilience.
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In recent years, crowd simulation has gained increasing attention due to its vast potential, especially in
architecture, urban planning, and disaster management fields. This involves creating computer-generated models that
simulate large groups' movement and behavior. Many simulation approaches, such as microscopic, macroscopic, and
mesoscopic models, can be used, each with its advantages and disadvantages. Analyzing the types and categories of crowd
simulations provides insight into the evolution of technology. Several studies dealing with urban planning implications
were examined to analyze each pedestrian flow model and to synthesize their strengths, weaknesses, and ethical
considerations. This review serves as a resource for urban development professionals, AI simulation specialists, and
researchers working at the intersection of crowd dynamics and city planning. Overall, this article presents a systematic
analysis of crowd simulation literature, elucidating current limitations, future trajectories and research opportunities for
enhanced efficiency and realism.
Keywords :
Crowd simulation; Computer graphics; Intelligent Agents; Boids; Pedestrian Crowds; Multi-scale Modelling; Group Dynamics; Real-time simulation; Urban Systems; Resilience.