<p>The top row again shows histograms of the momentary degree distribution for networks at mean degrees around 1.4, 1.6 and 1.8, corresponding to concurrency prevalence of 35, 50 and 65%. The middle row shows the size distribution of the largest component as a percentage of the network, and the bottom row shows the distribution of the density of the largest components. Note that the percentage of the network in the largest component decreases with network size, but variability rises with concurrency levels. The density of the largest component decreases with network size and level of concurrency.</p
In the infinite configuration network the links between nodes are assigned randomly with the only re...
<p>Panel A shows the size of the out-component for an exemplary node as a function of . For many ti...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
<p>The distribution of the number of connections at each node, or degree, is plotted for each of the...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
<p>Average degree distribution of all frequency ranges for networks set at 1% connectivity density. ...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
<p>Panel A shows the size of the out-component for an exemplary node as a function of . For many ti...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
<p>The distribution of the number of connections at each node, or degree, is plotted for each of the...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
Scale-free networks arise from power-law degree distributions. Due to the finite size of real-world ...
<p>Average degree distribution of all frequency ranges for networks set at 1% connectivity density. ...
In the infinite configuration network the links between nodes are assigned randomly with the only re...
<p>Panel A shows the size of the out-component for an exemplary node as a function of . For many ti...
In the infinite configuration network the links between nodes are assigned randomly with the only re...