Topology dependent payoffs can lead to escape from prisoner's dilemma
arXiv:2006.14593 · doi:10.1140/epjb/s10051-021-00087-x
Abstract
The maintenance of cooperation in the presence of spatial restrictions has been studied extensively. It is well-established that the underlying graph topology can significantly influence the outcome of games on graphs. Maintenance of cooperation could be difficult, especially in the absence of spatial restrictions. The evolution of cooperation would naturally depend on payoffs. However, payoffs are generally considered to be invariant in a given game. A natural yet unexplored question is whether the topology of the underlying structures on which the games are played, possesses no role whatsoever in the determination of payoffs. Herein, we introduce the notion of cooperator graphs and defector graphs as well as a new form of game payoff, which is weakly dependent on the underlying network topology. These concepts are inspired by the well-known microbial phenomenon of quorum sensing. We demonstrate that even with such a weak dependence, the fundamental game dynamics and indeed the very nature of the game may be altered. Such changes in the nature of a game have been well-reported in theoretical and experimental studies.
arXiv commentReplaced by the version accepted to European Physical Journal B
References in corpus (13)
- Evolutionary games on graphs
- Coevolutionary games - a mini review
- Statistical physics of human cooperation
- Promoting cooperation in social dilemmas via simple coevolutionary rules
- Restricted connections among distinguished players support cooperation
- Effect of spatial structure on the evolution of cooperation
- Risk-driven migration and the collective-risk social dilemma
- Environmental feedback drives cooperation in spatial social dilemmas
- Mobility restores the mechanism which supports cooperation in the voluntary prisoner's dilemma game
- Critical dynamics in the evolution of stochastic strategies for the iterated Prisoner's Dilemma
- Coexistence of cooperators and defectors in well mixed populations mediated by limiting resources
- Strong associations between microbe phenotypes and their network architecture
- Slow poisoning and destruction of networks: Edge proximity and its implications for biological and infrastructure networks