Event Title
Understanding Collective Motion: Jamming and Crowd Dynamics
Location
Science Center A247
Start Date
10-27-2017 3:00 PM
End Date
10-27-2017 4:20 PM
Research Program
Harvard School of Engineering & Applied Sciences (SEAS)
Team Research in Computational & Applied Mathematics REU
Abstract
Collective motion is key to understanding the behavior of different organisms and how they interact with each other as well as their surroundings. Created from basic local rules, the complex behavior can be illustrated using the Vicsek model. Using this model, we have investigated the resulting behavior in terms of different parameters. This exploration provided the foundation of insight into crowd dynamics and jammed conditions. Through research into crowd dynamics, we discovered that the smart particle experienced less force on the indirect path through the crowd making it the better path. By testing various rules of particle interaction, we discovered a rule that produces ordered movement based on topological interaction in a jammed condition with partially periodic boundaries.
Recommended Citation
Bosco, Dominic, "Understanding Collective Motion: Jamming and Crowd Dynamics" (2017). Celebration of Undergraduate Research. 3.
https://digitalcommons.oberlin.edu/cour/2017/panel_03/3
Major
Mathematics; Computer Science
Project Mentor(s)
Lakshminarayanan Mahadevan, Christoph Weber, Orit Peleg, Alex Heyde and Sarah Iams, Harvard University
Document Type
Presentation
Understanding Collective Motion: Jamming and Crowd Dynamics
Science Center A247
Collective motion is key to understanding the behavior of different organisms and how they interact with each other as well as their surroundings. Created from basic local rules, the complex behavior can be illustrated using the Vicsek model. Using this model, we have investigated the resulting behavior in terms of different parameters. This exploration provided the foundation of insight into crowd dynamics and jammed conditions. Through research into crowd dynamics, we discovered that the smart particle experienced less force on the indirect path through the crowd making it the better path. By testing various rules of particle interaction, we discovered a rule that produces ordered movement based on topological interaction in a jammed condition with partially periodic boundaries.
Notes
Session I, Panel 3 - Physical | Science
Moderator: Jason Stalnaker, Associate Professor of Physics