International Journal of Biomathematics · 2018 · 60 citations · 48 references
Life SciencesEcologyBiological Systems ModelingDynamical SystemsPopulation EcologyDisease DynamicsInfectious Disease DynamicsPopulation Dynamics ModelingPredator-prey InteractionsStability TheoryTransmission DynamicsAllee EffectsAttack RateDisease TransmissionEpidemic ModelsLocal StabilityPredator - Prey DynamicsPredator-prey DynamicsPredator-prey Models
In this work, we have introduced an eco-epidemiological model of an infected predator–prey system. Incorporation of prey refuge gives that a fraction of the infected prey is available to the predator for consumption. Moreover, to make the model more realistic to the environment, we have introduced strong Allee effect in the susceptible population. Boundedness and positivity of the solution have been established. Local stability conditions of the equilibrium points have been found with the help of Routh–Hurwitz criterion and it has been observed that if a prey population is infected with a lethal disease, then both the prey (susceptible and infected) and predator cannot survive simultaneously in the system for any parametric values. The disease transmission rate and the attack rate on the susceptible have an important role to control the system dynamics. For different values of these two key parameters, we have got only healthy or disease-free or predation-free or a fluctuating disease-free or even a fluctuating predator-free system with some certain parametric conditions.
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R. D. Carmichael, Alfred J. Lotka · American Mathematical Monthly · 1926 · 2.8K citations
Behavioural ecology: An evolutionary approach
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Life Sciences, Biology, Ecology +13