The crowd dynamics under terrorist attacks revealed by simulations of three-dimensional agents

被引:0
|
作者
Peng Lu
Mengdi Li
Zhuo Zhang
机构
[1] Central South University,Department of Sociology
[2] Central South University,Department of Artificial Intelligence
[3] PKU-Wuhan Institute for Artificial Intelligence,undefined
[4] Research Center for Intelligent Society and Governance,undefined
[5] Zhejiang Lab,undefined
来源
关键词
ABM; 3D agents; Public safety; Hide and fight; Crowd dynamics;
D O I
暂无
中图分类号
学科分类号
摘要
The terrorist attack has been widely modeled, in terms of crowd behavior, complex environments, attack patterns, and evacuation systems. However, most models are two-dimensional, which is unreal. The 3D factors, especially individual heights, will significantly shape both the process and outcome of terrorist attacks. Hence, the 3D model is more realistic. Taking the example of the Peshawar shooting in 2014, we apply 3D agents to reveal real-world behaviors of individuals, such as hiding, fighting, and escaping during the whole process. Based on the optimal solution out of simulations, the validity and robustness of our model can be well supported. To reveal the exact effects of key factors or mechanisms, we use counterfactual experiments and have some findings. For the fighting, more fighting of heroes can save more civilians. The hiding action of civilians can reduce the death probability. When the fighting rate in the crowd is higher, choosing to hide may be advisable for civilians. Meanwhile, hiding also has more benefits from increasing the hiding rate. A huge crowd hiding may reduce the fighting rate and then cause more deaths. Based on situations, the hiding should be chosen to maximize the gains. Our 3D model has made theoretical contributions to the field of public health and human behavior. It implies that civilians should hide properly, and be self-encouraged to be heroes, which should be advocated by the public.
引用
收藏
页码:13103 / 13125
页数:22
相关论文
共 50 条
  • [21] Three-dimensional simulations of a starburst wind
    Jackie L. Cooper
    Geoffrey V. Bicknell
    Ralph S. Sutherland
    Joss Bland-Hawthorn
    Astrophysics and Space Science, 2007, 311 : 99 - 103
  • [22] Three-dimensional pulse tube simulations
    Willems, DWJ
    Dam, JAM
    ADVANCES IN CRYOGENIC ENGINEERING, VOL 47, PTS A AND B, 2002, 613 : 934 - 941
  • [23] Three-dimensional numerical simulations of tornadoes
    Fiedler, B
    11TH CONFERENCE ON ATMOSPHERIC AND OCEANIC FLUID DYNAMICS, 1997, : 73 - 76
  • [24] Three-dimensional simulations of accretion disks
    Hawley, JF
    Balbus, SA
    ACCRETION PHENOMENA AND RELATED OUTFLOWS: IAU COLLOQUIUM 163, 1997, 121 : 179 - 189
  • [25] THREE-DIMENSIONAL VOLUME OF FLUID SIMULATIONS OF AIR BUBBLE DYNAMICS IN A CONVERGING NOZZLE
    Law, Deify
    Shepard, Thomas G.
    PROCEEDINGS OF THE ASME FLUIDS ENGINEERING DIVISION SUMMER MEETING, 2018, VOL 1, 2018,
  • [26] Three-dimensional granular dynamics simulations of polydisperse and bidisperse nanopowders compaction processes
    Boltachev, G. Sh
    Chingina, E. A.
    Lukyashin, K. E.
    Medvedev, A. I.
    Volkov, N. B.
    XXXIII INTERNATIONAL CONFERENCE ON EQUATIONS OF STATE FOR MATTER, 2019, 1147
  • [27] Simulations of metastable decay in two- and three-dimensional models with microscopic dynamics
    Novotny, MA
    Rikvold, PA
    Kolesik, M
    Townsley, DM
    Ramos, RA
    JOURNAL OF NON-CRYSTALLINE SOLIDS, 2000, 274 (1-3) : 356 - 363
  • [28] Simulations of two-dimensional Kadomtsev-Petviashvili soliton dynamics in three-dimensional space
    Senatorski, A
    Infeld, E
    PHYSICAL REVIEW LETTERS, 1996, 77 (14) : 2855 - 2858
  • [29] Three-Dimensional Numerical Simulations of Biofilm Dynamics with Quorum Sensing in a Flow Cell
    Zhao, Jia
    Wang, Qi
    BULLETIN OF MATHEMATICAL BIOLOGY, 2017, 79 (04) : 884 - 919
  • [30] Large-scale molecular dynamics simulations of three-dimensional ductile failure
    Zhou, SJ
    Beazley, DM
    Lomdahl, PS
    Holian, BL
    PHYSICAL REVIEW LETTERS, 1997, 78 (03) : 479 - 482