We propose a simple model of network co–evolution in a game–dynamical system of interacting agents that play repeated games with their neighbors, and adapt their behaviors and network links based on the outcome of those games. The adaptation is achieved through a simple reinforcement learning scheme. We show that the collective evolution of such a system can be de-scribed by appropriately defined replicator dynamics equations. In particular, we suggest an appropriate fac-torization of the agents ’ strategies thats results in a cou-pled system of equations characterizing the evolution of both strategies and network structure, and illustrate the framework on two simple examples
We analyze evolutionary games with replicator dynamics that have frequency dependent stage games. In...
This paper extends the link between evolutionary game theory and multi-agent reinforcement learning ...
This paper introduces a new model, i.e. state-coupled replicator dynamics, expanding the link betwee...
Abstract. Many real-world scenarios can be modelled as multi-agent systems, where multiple autonomou...
Abstract. Today’s society is largely connected and many real life appli-cations lend themselves to b...
A new mathematical formulation of evolutionary game dynamics on networked populations is proposed. T...
We consider a dynamic social network model in which agents play repeated games in pairings determine...
A new mathematical formulation of evolutionary game dynamics on networked populations is proposed. T...
A new mathematical model for evolutionary games on graphs is proposed to extend the classical replic...
Abstract The replicator equation is one of the fundamental tools to study evolutionary dynamics in w...
We consider a dynamic social network model in which agents play repeated games in pairings determine...
Evolutionary game theorists have devoted a great deal of effort to answering questions related to co...
This paper extends the link between evolutionary game theory and multi-agent reinforcement learning ...
This paper extends the link between evolutionary game theory and multi-agent reinforcement learning ...
This paper extends the link between evolutionary game theory and multi-agent reinforcement learning ...
We analyze evolutionary games with replicator dynamics that have frequency dependent stage games. In...
This paper extends the link between evolutionary game theory and multi-agent reinforcement learning ...
This paper introduces a new model, i.e. state-coupled replicator dynamics, expanding the link betwee...
Abstract. Many real-world scenarios can be modelled as multi-agent systems, where multiple autonomou...
Abstract. Today’s society is largely connected and many real life appli-cations lend themselves to b...
A new mathematical formulation of evolutionary game dynamics on networked populations is proposed. T...
We consider a dynamic social network model in which agents play repeated games in pairings determine...
A new mathematical formulation of evolutionary game dynamics on networked populations is proposed. T...
A new mathematical model for evolutionary games on graphs is proposed to extend the classical replic...
Abstract The replicator equation is one of the fundamental tools to study evolutionary dynamics in w...
We consider a dynamic social network model in which agents play repeated games in pairings determine...
Evolutionary game theorists have devoted a great deal of effort to answering questions related to co...
This paper extends the link between evolutionary game theory and multi-agent reinforcement learning ...
This paper extends the link between evolutionary game theory and multi-agent reinforcement learning ...
This paper extends the link between evolutionary game theory and multi-agent reinforcement learning ...
We analyze evolutionary games with replicator dynamics that have frequency dependent stage games. In...
This paper extends the link between evolutionary game theory and multi-agent reinforcement learning ...
This paper introduces a new model, i.e. state-coupled replicator dynamics, expanding the link betwee...