Plane and Planarity Thresholds for Random Geometric Graphs

09/27/2018
by   Ahmad Biniaz, et al.
0

A random geometric graph, G(n,r), is formed by choosing n points independently and uniformly at random in a unit square; two points are connected by a straight-line edge if they are at Euclidean distance at most r. For a given constant k, we show that n^-k/2k-2 is a distance threshold function for G(n,r) to have a connected subgraph on k points. Based on this, we show that n^-2/3 is a distance threshold for G(n,r) to be plane, and n^-5/8 is a distance threshold to be planar. We also investigate distance thresholds for G(n,r) to have a non-crossing edge, a clique of a given size, and an independent set of a given size.

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