Stability analysis of prey predator model Holling type II with infected prey
Khoirin Latipah, Asterisa Retno Putri, Mahdhivan Syafwan
Abstract
Open-access reader
Khoirin Latipah, Asterisa Retno Putri, Mahdhivan Syafwan
Abstract
Open-access reader
Abstract We describe a prey-predator model with infected prey. The model using Holling response function of type II is a nonlinear system of ordinary differential equations consisting of two distinct population. Critical points of the model was determined and stability of the system was analyzed by eigenvalues of Jacobian matrix. The behaviour of the dynamical system was analyzed through this stability. Furthermore, threshold number determining the system is free of disease or infected was computed. Numerical solutions are presented on phase plane to confirm the analytical solutions.
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Abstract We describe a prey-predator model with infected prey. The model using Holling response function of type II is a nonlinear system of ordinary differential equations consisting of two distinct population. Critical points of the model was determined and stability of the system was analyzed by eigenvalues of Jacobian matrix. The behaviour of the dynamical system was analyzed through this stability. Furthermore, threshold number determining the system is free of disease or infected was computed. Numerical solutions are presented on phase plane to confirm the analytical solutions.
Key concepts: Jacobian matrix and determinant, Eigenvalues and eigenvectors, Mathematics, Ordinary differential equation, Stability (learning theory), Applied mathematics, Type (biology), Functional response