The classical wave-of-advance model of the neolithic transition (i.e., the shift from hunter-gatherer to agricultural economies) is based on Fisher's reaction-diffusion equation. Here we present an extension of Einstein's approach to Fickian diffusion, incorporating reaction terms. On this basis we show that second-order terms in the reaction-diffusion equation, which have been neglected up to now, are not in fact negligible but can lead to important corrections. The resulting time-delayed model agrees quite well with observation
We introduce a set of sequential integro-difference equations to analyze the dynamics of two interac...
doi:10.1088/1367-2630/10/4/043045 Abstract. We introduce a set of sequential integro-difference equa...
The Fisher’s equation is established combining the Fick’s law for the flux and the mass conservatio...
The classical wave-of-advance model of the neolithic transition (i.e., the shift from hunter-gathere...
We extend a previous model of the Neolithic transition in Europe [J. Fort and V. Méndez, Phys. Rev. ...
A time-delayed second-order approximation for the front speed in reaction-dispersion systems was obt...
In a previous paper [J. Fort and V. Méndez, Phys. Rev. Lett. 82, 867 (1999)], the possible importanc...
In 1996, Aoki, Shida and Shigesada proposed a three-component reaction-diffusion model describing th...
Space competition effects are well-known in many microbiological and ecological systems. Here we ana...
Space competition effects are well-known in many microbiological and ecological systems. Here we ana...
The front speed of the Neolithic (farmer) spread in Europe decreased as it reached Northern latitude...
We present a model in which particles (or individuals of a biological population) disperse with a re...
This thesis presents population dynamics models that can be applied to predict the rate of spread of...
The classical wave-of-advance model is based on Fisher's equation. However, this approach leads to a...
In this paper the model for the neolithic migration in Europe is developed. The new migration equati...
We introduce a set of sequential integro-difference equations to analyze the dynamics of two interac...
doi:10.1088/1367-2630/10/4/043045 Abstract. We introduce a set of sequential integro-difference equa...
The Fisher’s equation is established combining the Fick’s law for the flux and the mass conservatio...
The classical wave-of-advance model of the neolithic transition (i.e., the shift from hunter-gathere...
We extend a previous model of the Neolithic transition in Europe [J. Fort and V. Méndez, Phys. Rev. ...
A time-delayed second-order approximation for the front speed in reaction-dispersion systems was obt...
In a previous paper [J. Fort and V. Méndez, Phys. Rev. Lett. 82, 867 (1999)], the possible importanc...
In 1996, Aoki, Shida and Shigesada proposed a three-component reaction-diffusion model describing th...
Space competition effects are well-known in many microbiological and ecological systems. Here we ana...
Space competition effects are well-known in many microbiological and ecological systems. Here we ana...
The front speed of the Neolithic (farmer) spread in Europe decreased as it reached Northern latitude...
We present a model in which particles (or individuals of a biological population) disperse with a re...
This thesis presents population dynamics models that can be applied to predict the rate of spread of...
The classical wave-of-advance model is based on Fisher's equation. However, this approach leads to a...
In this paper the model for the neolithic migration in Europe is developed. The new migration equati...
We introduce a set of sequential integro-difference equations to analyze the dynamics of two interac...
doi:10.1088/1367-2630/10/4/043045 Abstract. We introduce a set of sequential integro-difference equa...
The Fisher’s equation is established combining the Fick’s law for the flux and the mass conservatio...