AbstractThe probabilities of extinction, weak extinction, permanence, and mutual exclusion are calculated for models with up to five species by examining one million randomly chosen discrete, competitive, LotkarVolterra systems. The probability of permanence drops off very rapidly with the increase in the number of species. It drops to less than 1% with five species. The probability that at least one species will die out increases with the number of species. It reaches 95% with five species. When a group of species weakly dominates another species, the dominated species goes extinct. The probability that at least one species is weakly dominated is close to 50%. Mutual exclusion happens between 10% and 20% of the time when there are at least...
AbstractIn this paper, a two-species competitive model with stage structure is presented and studied...
Community ecology has traditionally relied on the competitive exclusion principle, a piece of common...
AbstractWe generalise and unify some recent results about extinction in nth-order nonautonomous comp...
AbstractThe probabilities of extinction, weak extinction, permanence, and mutual exclusion are calcu...
We analyze purely competitive many-species Lotka-Volterra systems with random interaction matrices, ...
AbstractIn this paper, we first consider a general N-species nonautonomous Lotka–Volterra system. We...
The sizeable literature on extinction in economics has paid scant attention to the problem of constr...
Cyclic dominance of species has been identified as a potential mechanism to maintain biodiversity, s...
The chapter develops a practical algorithm for forecasting an extinction event in a biological syste...
We investigate a stochastic model for the competition between two species. Based on percentiles of t...
It is well known that for the two species autonomous competitive Lotka-Volterra model with no fixed ...
Deterministic evolutionary game dynamics can lead to stable coexistences of different types. Stochas...
A predictive theory of population extinction for natural populations requires integrating the effect...
In this work, a discrete version of the Lotka-Volterra equations (4) was used to model competition b...
We generalise and unify some recent results about extinction in nth-order nonautonomous competitive ...
AbstractIn this paper, a two-species competitive model with stage structure is presented and studied...
Community ecology has traditionally relied on the competitive exclusion principle, a piece of common...
AbstractWe generalise and unify some recent results about extinction in nth-order nonautonomous comp...
AbstractThe probabilities of extinction, weak extinction, permanence, and mutual exclusion are calcu...
We analyze purely competitive many-species Lotka-Volterra systems with random interaction matrices, ...
AbstractIn this paper, we first consider a general N-species nonautonomous Lotka–Volterra system. We...
The sizeable literature on extinction in economics has paid scant attention to the problem of constr...
Cyclic dominance of species has been identified as a potential mechanism to maintain biodiversity, s...
The chapter develops a practical algorithm for forecasting an extinction event in a biological syste...
We investigate a stochastic model for the competition between two species. Based on percentiles of t...
It is well known that for the two species autonomous competitive Lotka-Volterra model with no fixed ...
Deterministic evolutionary game dynamics can lead to stable coexistences of different types. Stochas...
A predictive theory of population extinction for natural populations requires integrating the effect...
In this work, a discrete version of the Lotka-Volterra equations (4) was used to model competition b...
We generalise and unify some recent results about extinction in nth-order nonautonomous competitive ...
AbstractIn this paper, a two-species competitive model with stage structure is presented and studied...
Community ecology has traditionally relied on the competitive exclusion principle, a piece of common...
AbstractWe generalise and unify some recent results about extinction in nth-order nonautonomous comp...