The proposed scheduler is evaluated through simulation in terms of delay, throughput and fairness index.
These protocols have been proved correct, and are also optimal in terms of delay before message delivery, progress during failures and even the mapping to RDMA hardware.
The obtained mixed-topology circuits are optimized in terms of delay by resorting to simple analytical models.
Simulation results showed that the proposed scheme performs better than either schemes in terms of delay and memory requirements.
Optimality, in terms of delay, is achieved in unidimensional highway scenarios and under realistic wireless propagation assumptions.
The proposed structure, called gradually low-K, exhibits negligible side-effects in terms of delay and power consumption.
In this context, CAD tools that improve performance in terms of delay, area or power consumption are of interest.
A practical rule of thumb for an optimal query interval in terms of delay and energy is derived from different parts of the study.
These experiences show performance improvements, compared to the best of reference designs, in terms of delay (5%), power (16%), and PDP (26%), respectively.
Our simulation results show that crossbar-based circuits have much smaller area while CMOS circuits show better performance in terms of delay.
Better QoS, in terms of delay, throughput, and loss rate, can be provided by a packet scheduling technique and a buffer management architecture for packet switching networks.
