
doi: 10.1137/1025005
Volterra’s model for population growth in a closed system includes an integral term to indicate accumulated toxicity in addition to the usual terms of the logistic equation. Solutions to this equation are studied by means of singular perturbation techniques. Two major types of systems are discovered, those with populations immediately sensitive to toxins and those that succumb to toxins only after long times.
Integro-ordinary differential equations, Population dynamics (general), singular perturbation techniques, population growth, Volterra model, closed system, Numerical methods for integral equations, integral transforms, model of the accumulated effect of toxins
Integro-ordinary differential equations, Population dynamics (general), singular perturbation techniques, population growth, Volterra model, closed system, Numerical methods for integral equations, integral transforms, model of the accumulated effect of toxins
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