Artificial intelligence for COVID-19 spread modeling

被引:2
作者
Krivorotko, Olga [1 ]
Kabanikhin, Sergey [1 ]
机构
[1] Sobolev Inst Math SB RAS, Math Ctr Akademgorodok, Akad Koptyuga Ave 4, Novosibirsk 630090, Russia
来源
JOURNAL OF INVERSE AND ILL-POSED PROBLEMS | 2024年 / 32卷 / 02期
关键词
Data analysis; inverse problems; SIR models; agent-based models; optimization; forecasting; regularization; identifiability; nature inspired algorithms; machine learning; NEURAL-NETWORKS; SPATIAL SPREAD; INVERSE; IDENTIFICATION; OPTIMIZATION; SIMULATION; NUMBER; STATE;
D O I
10.1515/jiip-2024-0013
中图分类号
O29 [应用数学];
学科分类号
070104 ;
摘要
This paper presents classification and analysis of the mathematical models of the spread of COVID-19 in different groups of population such as family, school, office (3-100 people), town (100-5000 people), city, region (0.5-15 million people), country, continent, and the world. The classification covers major types of models (time-series, differential, imitation ones, neural networks models and their combinations). The time-series models are based on analysis of time series using filtration, regression and network methods. The differential models are those derived from systems of ordinary and stochastic differential equations as well as partial differential equations. The imitation models include cellular automata and agent-based models. The fourth group in the classification consists of combinations of nonlinear Markov chains and optimal control theory, derived by methods of the mean-field game theory. COVID-19 is a novel and complicated disease, and the parameters of most models are, as a rule, unknown and estimated by solving inverse problems. The paper contains an analysis of major algorithms of solving inverse problems: stochastic optimization, nature-inspired algorithms (genetic, differential evolution, particle swarm, etc.), assimilation methods, big-data analysis, and machine learning.
引用
收藏
页码:297 / 332
页数:36
相关论文
共 125 条
[1]   Finite Difference Methods for Mean Field Games [J].
Achdou, Yves .
HAMILTON-JACOBI EQUATIONS: APPROXIMATIONS, NUMERICAL ANALYSIS AND APPLICATIONS, CETRARO, ITALY 2011, 2013, 2074 :1-47
[2]   MEAN FIELD GAMES: NUMERICAL METHODS [J].
Achdou, Yves ;
Capuzzo-Dolcetta, Italo .
SIAM JOURNAL ON NUMERICAL ANALYSIS, 2010, 48 (03) :1136-1162
[3]   HIV dynamics: Modeling, data analysis, and optimal treatment protocols [J].
Adams, BM ;
Banks, HT ;
Davidian, M ;
Kwon, HD ;
Tran, HT ;
Wynne, SN ;
Rosenberg, ES .
JOURNAL OF COMPUTATIONAL AND APPLIED MATHEMATICS, 2005, 184 (01) :10-49
[4]  
Adarchenko S. A., 2020, 264 RFNCVNIITF
[5]   Modelling the impact of testing, contact tracing and household quarantine on second waves of COVID-19 [J].
Aleta, Alberto ;
Martin-Corral, David ;
Pastore y Piontti, Ana ;
Ajelli, Marco ;
Litvinova, Maria ;
Chinazzi, Matteo ;
Dean, Natalie E. ;
Halloran, M. Elizabeth ;
Longini, Ira M., Jr. ;
Merler, Stefano ;
Pentland, Alex ;
Vespignani, Alessandro ;
Moro, Esteban ;
Moreno, Yamir .
NATURE HUMAN BEHAVIOUR, 2020, 4 (09) :964-+
[6]   A Maximum Principle for SDEs of Mean-Field Type [J].
Andersson, Daniel ;
Djehiche, Boualem .
APPLIED MATHEMATICS AND OPTIMIZATION, 2011, 63 (03) :341-356
[7]   Bayesian History Matching of Complex Infectious Disease Models Using Emulation: A Tutorial and a Case Study on HIV in Uganda [J].
Andrianakis, Ioannis ;
Vernon, Ian R. ;
McCreesh, Nicky ;
McKinley, Trevelyan J. ;
Oakley, Jeremy E. ;
Nsubuga, Rebecca N. ;
Goldstein, Michael ;
White, Richard G. .
PLOS COMPUTATIONAL BIOLOGY, 2015, 11 (01)
[8]  
[Anonymous], 2008, US
[9]  
[Anonymous], 2019, Household Size
[10]   Simulation of Spatial Spread of the COVID-19 Pandemic on the Basis of the Kinetic-Advection Model [J].
Aristov, Vladimir V. ;
Stroganov, Andrey, V ;
Yastrebov, Andrey D. .
PHYSICS, 2021, 3 (01) :85-102