While Gigabit Ethernet based network architectures typically show reduced zero payload node latency performance relative to interconnect solutions (Myrinet, SP Switch and InfiniBand), some with higher path MTU equivalent, Ethernet continues to be the most widely deployed and may remain so for the forseeable future.
Path with higher path preference probability between source and destination is selected for transmitting data.
Initially, data are sent over the path with higher path preference probability which can provide lesser delay, higher bandwidth, and shorter path in terms of number of hops.
Apparently, the path with higher path preference probability offers an optimized consideration of multiple QoS metrics delay, bandwidth, and shortest hop count.
In case of any link failure leading to path breaks, alternate possible paths with next higher path preference probability are immediately considered and data transmission will be continued.
You put out the intention, and then the world really does give you what you asked for provided it's in line with your highest path.
Comparing the algorithms implemented by the proposed framework with the optimization models shows that our solution can find existing feasible paths with high probability, efficiently optimizes path lengths, and has a comparable performance to the optimal QoS routing algorithm.
This is a difficult question, as the education system itself is highly complex, with high degrees of path dependency.
Furthermore, the scheme ensures that, with high probability, all path-keys are exclusively known by the two end nodes involved in the communication along the path.
These probabilities are multiplied along a path, so the probability of not using a path with high label probabilities is heavily penalized.
