Abstract: A method and device are disclosed for optimizing use of a plurality of different approaches to communicating data. The device includes a plurality of different components, each component capable of being utilized by the device in communicating data with other devices in the network. Each component generates, when an opportunity for communicating data occurs, a decision relating to the communication using a distinct rule set. A decision handler, coupled to the components, generates a final decision relating to the communication of data based upon each decision generated by the components and upon the correctness of prior decisions generated by the components. The correctness of the final decision is used subsequently in generating additional final decisions.

Abstract: A method and device are disclosed for optimizing use of a plurality of different approaches to communicating data. The device includes a plurality of different components, each component capable of being utilized by the device in communicating data with other devices in the network. Each component generates, when an opportunity for communicating data occurs, a decision relating to the communication using a distinct rule set. A decision handler, coupled to the components, generates a final decision relating to the communication of data based upon each decision generated by the components and upon the correctness of prior decisions generated by the components. The correctness of the final decision is used subsequently in generating additional final decisions.

Abstract: A method and device partition physical transmission resources of a physical network. At first, a set of logical networks is established on top of the physical network. The logical networks comprise nodes and logical links extending between the nodes so as to form the logical networks. The logical links are used by routes. Next, the capacities of the logical links of the logical networks are determined such that the route blocking probability on each individual route in each one of the logical networks is less than or equal to a maximum allowed blocking probability for each individual route. This is realized by distributing, for each individual route, the route blocking evenly among the logical links used by the individual route. Finally, the physical transmission resources are allocated among the logical links of the logical networks according to the determination.

Abstract: A set of logical networks is established on top of a physical network Next, a predefined objective function, closely related to the operation and performance of the physical network, which physical network is viewed as the set of logical networks, is optimized with respect to at least one set of decision variables. Finally, the decision variables in accordance with the optimization are used to control the operation of the overall network system. Physical transmission resources are partitioned among logical networks. Traffic loads are distributed among routes interconnecting the nodes of node pairs.

Abstract: A device for distributing resources of a given physical network among logical links by subdividing physical link capacities into logical links using an algorithm. The device comprises a first neural network, in which one part of the algorithm is implemented, and a second neural network, in which a second part of the algorithm is implemented, said two neural networks interworking to compute logical link capacities. Furthermore, a method for distributing resources of a given physical network among logical links by subdividing physical link capacities into said logical links is provided. More specifically, the method involves the use of a first neural network, in which one part of an algorithm is implemented, and a second neural network, in which a second part of an algorithm is implemented, said two neural networks interworking to compute logical link capacities so that the operation of the physical network, given an objective function, is generally optimized, according to the objective function.