A synthetic computational environment: To control the spread of respiratory infections in a virtual university
Authored by Xiaogang Qiu, Yuanzheng Ge, Bin Chen, Hongbin Song, Yong Wang, Liang Liu
Date Published: 2018
DOI: 10.1016/j.physa.2017.09.048
Sponsors:
Chinese National Natural Science Foundation
Platforms:
No platforms listed
Model Documentation:
Other Narrative
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Model Code URLs:
Model code not found
Abstract
Individual-based computational environment provides an effective
solution to study complex social events by reconstructing scenarios.
Challenges remain in reconstructing the virtual scenarios and
reproducing the complex evolution. In this paper, we propose a framework
to reconstruct a synthetic computational environment, reproduce the
epidemic outbreak, and evaluate management interventions in a virtual
university. The reconstructed computational environment includes 4
fundamental components: the synthetic population, behavior algorithms,
multiple social networks, and geographic campus environment. In the
virtual university, influenza H1N1 transmission experiments are
conducted, and gradually enhanced interventions are evaluated and
compared quantitatively. The experiment results indicate that the
reconstructed virtual environment provides a solution to reproduce
complex emergencies and evaluate policies to be executed in the real
world. (C) 2017 Elsevier B.V. All rights reserved.
Tags
Simulation
Complex networks
behavior
Individual-based modeling
Model
Epidemic
influenza transmission
Pandemic influenza
Virus
School closure
Synthetic computational environment
Disease
transmission
Intervention evaluation
Contact
network