= (f) Suppose now that you iterate the growing process for a finite number of time steps, until you produce a final network with N 106 nodes (and a minimum degree m = 2). Denote as K the natural cutoff in the network. Treating the degree k as a continuous variable, evaluate the natural cutoff K, the normalisation constant in the degree distribution, the average degree (k), and (k2). (g) Calculate the probability of finding a node with 1000 links in the network obtained in point (f). Calculate the probability of finding a node with 1000 links in a Erdös-Rènyi random graphs with the same number of nodes and links as in the network obtained in point (f). Consider the following model to grow simple networks. At time t = 1 we start with a complete network with no = 6 nodes. At each time step t> 1 a new node is added to the network. The node arrives together with m = = 2 new links, which are connected to 2 different nodes already present in the network. The probability II; that a new link is connected to node i is: m = N(t-1) Π ki - 1 Z with Z = Σ (ky - 1) j=1 I where ki is the degree of node i, and N(t - 1) is the number of nodes in the network at time t-1.

Advanced Engineering Mathematics
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ISBN:9780470458365
Author:Erwin Kreyszig
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Chapter2: Second-order Linear Odes
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(f) Suppose now that you iterate the growing process for a finite number of time
steps, until you produce a final network with N 106 nodes (and a minimum
degree m = 2). Denote as K the natural cutoff in the network. Treating the
degree k as a continuous variable, evaluate the natural cutoff K, the normalisation
constant in the degree distribution, the average degree (k), and (k2).
(g) Calculate the probability of finding a node with 1000 links in the network
obtained in point (f). Calculate the probability of finding a node with 1000 links
in a Erdös-Rènyi random graphs with the same number of nodes and links as in
the network obtained in point (f).
Transcribed Image Text:= (f) Suppose now that you iterate the growing process for a finite number of time steps, until you produce a final network with N 106 nodes (and a minimum degree m = 2). Denote as K the natural cutoff in the network. Treating the degree k as a continuous variable, evaluate the natural cutoff K, the normalisation constant in the degree distribution, the average degree (k), and (k2). (g) Calculate the probability of finding a node with 1000 links in the network obtained in point (f). Calculate the probability of finding a node with 1000 links in a Erdös-Rènyi random graphs with the same number of nodes and links as in the network obtained in point (f).
Consider the following model to grow simple networks. At time t = 1 we start with a
complete network with no = 6 nodes. At each time step t> 1 a new node is added to
the network. The node arrives together with m = = 2 new links, which are connected to
2 different nodes already present in the network. The probability II; that a new
link is connected to node i is:
m =
N(t-1)
Π
ki - 1
Z
with Z =
Σ (ky - 1)
j=1
I
where ki is the degree of node i, and N(t - 1) is the number of nodes in the network at
time t-1.
Transcribed Image Text:Consider the following model to grow simple networks. At time t = 1 we start with a complete network with no = 6 nodes. At each time step t> 1 a new node is added to the network. The node arrives together with m = = 2 new links, which are connected to 2 different nodes already present in the network. The probability II; that a new link is connected to node i is: m = N(t-1) Π ki - 1 Z with Z = Σ (ky - 1) j=1 I where ki is the degree of node i, and N(t - 1) is the number of nodes in the network at time t-1.
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