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Carlo Beenakker
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The systems you are looking for belong to the class of small-world networks, introduced in 1998 by Watts and Strogatz. Quite generally, a small-world network is defined to be a network where the typical distance between two randomly chosen nodes (the number of steps required) grows proportionally to the logarithm of the number of nodes in the network.

Wikipedia provides a good starting point for exploration:

Small-world networks

Small-world experiments

Specifically related to the Erdős number is this online lecture by John Barrow:

Erdős Numbers: A mathematical example of 'small world' networks

Related MO posts dealing with the dynamics of the Erdős number (and suggesting the introduction of a Mathoverflow number):

How does the distribution of Erdős number evolve over time ? How to build a model to fit the real data ?

The diameter of the Erdös component of the collaboration graph

The systems you are looking for belong to the class of small-world networks, introduced in 1998 by Watts and Strogatz. Quite generally, a small-world network is defined to be a network where the typical distance between two randomly chosen nodes (the number of steps required) grows proportionally to the logarithm of the number of nodes in the network.

Wikipedia provides a good starting point for exploration:

Small-world networks

Small-world experiments

Specifically related to the Erdős number is this online lecture by John Barrow:

Erdős Numbers: A mathematical example of 'small world' networks

The systems you are looking for belong to the class of small-world networks, introduced in 1998 by Watts and Strogatz. Quite generally, a small-world network is defined to be a network where the typical distance between two randomly chosen nodes (the number of steps required) grows proportionally to the logarithm of the number of nodes in the network.

Wikipedia provides a good starting point for exploration:

Small-world networks

Small-world experiments

Specifically related to the Erdős number is this online lecture by John Barrow:

Erdős Numbers: A mathematical example of 'small world' networks

Related MO posts dealing with the dynamics of the Erdős number (and suggesting the introduction of a Mathoverflow number):

How does the distribution of Erdős number evolve over time ? How to build a model to fit the real data ?

The diameter of the Erdös component of the collaboration graph

Source Link
Carlo Beenakker
  • 188.3k
  • 18
  • 448
  • 651

The systems you are looking for belong to the class of small-world networks, introduced in 1998 by Watts and Strogatz. Quite generally, a small-world network is defined to be a network where the typical distance between two randomly chosen nodes (the number of steps required) grows proportionally to the logarithm of the number of nodes in the network.

Wikipedia provides a good starting point for exploration:

Small-world networks

Small-world experiments

Specifically related to the Erdős number is this online lecture by John Barrow:

Erdős Numbers: A mathematical example of 'small world' networks