The mobile agent rendezvous problem consists of k ≥ 2 mobile agents trying to rendezvous or meet in a minimum amount of time on an n node ring network. Tokens and markers have been used successfully to achieve rendezvous when the problem is symmetric, e.g., the network is an anonymous ring and the mobile agents are identical and run the same deterministic algorithm. In this paper, we explore how token failure affects the time required for mobile agent rendezvous under symmetric conditions with different types of knowledge. Our results suggest that knowledge of n is better than knowledge of k in terms of achieving rendezvous as quickly as possible in the faulty token setting
Mobile agent computing is being used in fields as diverse as artificial intelligence, computational ...
Abstract. We introduce a variant of the deterministic rendezvous prob-lem for a pair of heterogeneou...
AbstractA set of k mobile agents with distinct identifiers and located in nodes of an unknown anonym...
The mobile agent rendezvous problem consists of k ≥ 2 mobile agents trying to rendezvous or meet in ...
In the rendezvous search problem, two mobile agents must move along the n nodes of a network so as t...
We consider the problem of rendezvous or gathering of multiple autonomous entities (called mobile ag...
Rendezvous with detection differs from the usual rendezvous problem in that two mobile agents not on...
We examine the problem of rendezvous, i.e., having multiple mobile agents gather in a single node of...
International audienceTwo mobile agents, starting from different nodes of an unknown network, have t...
We consider the rendezvous problem for identical mobile agents (i.e., running the same deterministic...
In the rendezvous problem, the goal for two mobile agents is to meet whenever this is possible. In t...
International audienceWe introduce a variant of the deterministic rendezvous problem for a pair of h...
A group of identical mobile agents moving asynchronously among the nodes of an anonymous network hav...
In this thesis we study mobile agent systems consisting of a network of nodes and a set of autonomou...
AbstractIn the rendezvous problem, the goal for two mobile agents is to meet whenever this is possib...
Mobile agent computing is being used in fields as diverse as artificial intelligence, computational ...
Abstract. We introduce a variant of the deterministic rendezvous prob-lem for a pair of heterogeneou...
AbstractA set of k mobile agents with distinct identifiers and located in nodes of an unknown anonym...
The mobile agent rendezvous problem consists of k ≥ 2 mobile agents trying to rendezvous or meet in ...
In the rendezvous search problem, two mobile agents must move along the n nodes of a network so as t...
We consider the problem of rendezvous or gathering of multiple autonomous entities (called mobile ag...
Rendezvous with detection differs from the usual rendezvous problem in that two mobile agents not on...
We examine the problem of rendezvous, i.e., having multiple mobile agents gather in a single node of...
International audienceTwo mobile agents, starting from different nodes of an unknown network, have t...
We consider the rendezvous problem for identical mobile agents (i.e., running the same deterministic...
In the rendezvous problem, the goal for two mobile agents is to meet whenever this is possible. In t...
International audienceWe introduce a variant of the deterministic rendezvous problem for a pair of h...
A group of identical mobile agents moving asynchronously among the nodes of an anonymous network hav...
In this thesis we study mobile agent systems consisting of a network of nodes and a set of autonomou...
AbstractIn the rendezvous problem, the goal for two mobile agents is to meet whenever this is possib...
Mobile agent computing is being used in fields as diverse as artificial intelligence, computational ...
Abstract. We introduce a variant of the deterministic rendezvous prob-lem for a pair of heterogeneou...
AbstractA set of k mobile agents with distinct identifiers and located in nodes of an unknown anonym...