The phrase "identical network" is correct and can be used in written English.
It is typically used to refer to a network that is exactly the same as another one, with no differences in terms of structure or components. Example: "The two computers are connected to an identical network, allowing them to share files and resources seamlessly."
All schemes are implemented identical network.
The performance of the protocol is also compared with Open Shortest Path First (OSPF) implemented over the GENI testbed for identical network topologies.
In the identical network, where P 0 = Q 0, the activity phases ( ϕ ˜ ∗ = θ ˜ ∗ = 0.5 ), and the intrinsic phases ( ϕ ∗ = θ ∗ = 0.598 ) of the two neurons are equal and hence Z A = Z B.
On the other hand, the fitness distribution for an identical network ("g") is computed to obtain p(F; g).
However, the identification of an identical network of regions active during processing of unrelated pairs of the 2 categories supports our general claim that proper and common nouns are not differently implemented in the brain as belonging to different grammatical classes.
RPB2 and ATP6 genes produced nearly identical network structures (Additional files 3 and 4).
The Internet working strategy for interconnecting identical networks is different from interconnecting similar or dissimilar networks.
A large number of local identical networks are used, each of them modelling an elementary module.
Three sets of precursors with different molecular architectures are designed such that they would form identical networks at the limit of perfect conversion.
In principle, for the same data set all three methods would generate identical networks, but they would quantify the strengths of connections in different ways.
More specifically, identical networks can be interconnected at the physical layer (layer 1), similar networks can be interconnected at the data link layer (layer 2), and dissimilar networks can be interconnected at the network layer (layer 3).
