2019
DOI: 10.1002/mma.6041
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Imprecise parameters for near‐optimal control of stochastic SIV epidemic model

Abstract: The change of parameters may influence the dynamic behaviors of epidemic diseases. Biological system parameters can also be changed due to diverse uncertainties such as lack of data and errors in the statistical approach. The problem of how to define and decide the optimal‐control strategies of epidemic diseases with imprecise parameters deserves further researches. The paper presents a stochastic susceptible, infected, and vaccinated (SIV) system that includes imprecise parameters. Firstly, we give the method… Show more

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Cited by 6 publications
(1 citation statement)
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References 27 publications
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“…For a stochastic model, the nonuniqueness of an existent optimal control is a very challenging problem to explore. Hence, as a feasible possibility, many authors started to explore a near-optimal control problem for epidemic models [14][15][16], viral [17] and chemostat [18] models, where the hypothesizes are weaker. Therefore, we investigate a controlling approach for the following stochastic epidemic model [6] with relapse dS(t) = [µ − µS(t) − βS(t)I(t)]dt − σS(t)I(t)dB(t), dI(t) = [βS(t)I(t) − (µ + λ)I(t) + ρR(t)]dt + σS(t)I(t)dB(t)…”
Section: Introductionmentioning
confidence: 99%
“…For a stochastic model, the nonuniqueness of an existent optimal control is a very challenging problem to explore. Hence, as a feasible possibility, many authors started to explore a near-optimal control problem for epidemic models [14][15][16], viral [17] and chemostat [18] models, where the hypothesizes are weaker. Therefore, we investigate a controlling approach for the following stochastic epidemic model [6] with relapse dS(t) = [µ − µS(t) − βS(t)I(t)]dt − σS(t)I(t)dB(t), dI(t) = [βS(t)I(t) − (µ + λ)I(t) + ρR(t)]dt + σS(t)I(t)dB(t)…”
Section: Introductionmentioning
confidence: 99%