Title
Efficient implementation of complex interventions in large scale epidemic simulations
Abstract
Realistic agent-based epidemic simulations usually involve a large scale social network containing individual details. The co-evolution of epidemic dynamics and human behavior requires the simulation systems to compute complex real-world interventions. Calls from public health policy makers for executing such simulation studies during a pandemic typically have tight deadlines. It is highly desirable to implement new interventions in existing high-performance epidemic simulations, with minimum development effort and limited performance degradation. Indemics is a database supported high-performance epidemic simulation framework, which enables complex intervention studies to be designed and executed within a short time. Unlike earlier approaches that implement new interventions inside the simulation engine, Indemics utilizes DBMS and reduces implementation effort from weeks to days. In this paper, we propose a methodology for modeling and predicting performance of Indemics-supported intervention studies. We demonstrate our methodology with experimental results.
Year
DOI
Venue
2011
10.1109/WSC.2011.6147856
Winter Simulation Conference
Keywords
Field
DocType
medical information systems,health care,large scale epidemic simulations,efficient implementation,epidemic dynamic,epidemic dynamics,indemics-supported intervention study,realistic agent-based epidemic simulation,public health,indemics,new intervention,realistic agent-based epidemic simulations,dbms,complex intervention,simulation system,large scale epidemic simulation,high-performance epidemic simulation,epidemics,human behavior,high-performance epidemic simulation framework,simulation study,simulation engine,large scale social network,social networking (online),indemics utilizes dbms,social network,prediction model,predictive models,computational modeling,computer model,engines,computational complexity
Public health,Health care,Psychological intervention,Social network,Simulation,Computer science,Epidemic dynamics,Pandemic
Conference
ISSN
ISBN
Citations 
0891-7736 E-ISBN : 978-1-4577-2107-6
978-1-4577-2107-6
2
PageRank 
References 
Authors
0.40
11
5
Name
Order
Citations
PageRank
Yifei Ma1387.20
Keith R. Bisset2658.05
Jiangzhuo Chen320822.89
Suruchi Deodhar4173.21
Madhav Marathe52775262.17