We consider a marginal distribution genetic model based on crossover of sequences of genes and provide relations between the associated infinite population genetic system and the neural networks. A lower bound on population size is exhibited stating that the behaviour of the finite population system, in case of sufficiently large sizes, can be approximated by the behaviour of the corresponding infinite population system. Assumptions on fitness and individual chromosomes are provided implying that the behaviour of the finite population genetic system remains consistent with the behaviour of the associated infinite population genetic system for suitably long trajectories. The attractors ...
Item does not contain fulltextWe introduce and analyze a general model of a population evolving over...
We introduce and analyze a general model of a population evolving over a network of selectively neut...
Theoretical analysis of the dynamics of evolutionary algorithms is believed to be very important to ...
We consider a marginal distribution genetic model based on crossover of sequences of genes and ...
AbstractWe introduce a genetic model based on simulated crossover of fixed sequences of two-bit gene...
We take into account the problem of extending the Univariate Marginal Distribution Genetic Algorithm...
This paper describes a method of determining the rates of crossover, mutation and training employed ...
We determine stability and attractor properties of random Boolean genetic network models with canaly...
textabstractThe so-called transmission function framework is described, and implementations of trans...
Abstract(i) We investigate spectral and geometric properties of the mutation-crossover operator in a...
This article is concerned with the long time behavior of neutral genetic population models, with fix...
In this paper, we investigate a neutral epoch during an optimisation run with complex genotype-to-fi...
textabstractInfinite population models show a deterministic behaviour. Genetic algorithms with finit...
Original article can be found at: http://www.sciencedirect.com/science/journal/03043975 Copyright El...
International audienceThis article is concerned with the long-time behavior of neutral genetic popul...
Item does not contain fulltextWe introduce and analyze a general model of a population evolving over...
We introduce and analyze a general model of a population evolving over a network of selectively neut...
Theoretical analysis of the dynamics of evolutionary algorithms is believed to be very important to ...
We consider a marginal distribution genetic model based on crossover of sequences of genes and ...
AbstractWe introduce a genetic model based on simulated crossover of fixed sequences of two-bit gene...
We take into account the problem of extending the Univariate Marginal Distribution Genetic Algorithm...
This paper describes a method of determining the rates of crossover, mutation and training employed ...
We determine stability and attractor properties of random Boolean genetic network models with canaly...
textabstractThe so-called transmission function framework is described, and implementations of trans...
Abstract(i) We investigate spectral and geometric properties of the mutation-crossover operator in a...
This article is concerned with the long time behavior of neutral genetic population models, with fix...
In this paper, we investigate a neutral epoch during an optimisation run with complex genotype-to-fi...
textabstractInfinite population models show a deterministic behaviour. Genetic algorithms with finit...
Original article can be found at: http://www.sciencedirect.com/science/journal/03043975 Copyright El...
International audienceThis article is concerned with the long-time behavior of neutral genetic popul...
Item does not contain fulltextWe introduce and analyze a general model of a population evolving over...
We introduce and analyze a general model of a population evolving over a network of selectively neut...
Theoretical analysis of the dynamics of evolutionary algorithms is believed to be very important to ...