arXiv Analytics

Sign in

arXiv:1103.4439 [cond-mat.stat-mech]AbstractReferencesReviewsResources

Continuity of the Explosive Percolation Transition

Hyun Keun Lee, Beom Jun Kim, Hyunggyu Park

Published 2011-03-23, updated 2011-06-16Version 3

The explosive percolation problem on the complete graph is investigated via extensive numerical simulations. We obtain the cluster-size distribution at the moment when the cluster size heterogeneity becomes maximum. The distribution is found to be well described by the power-law form with the decay exponent $\tau = 2.06(2)$, followed by a hump. We then use the finite-size scaling method to make all the distributions at various system sizes up to $N=2^{37}$ collapse perfectly onto a scaling curve characterized solely by the single exponent $\tau$. We also observe that the instant of that collapse converges to a well-defined percolation threshold from below as $N\rightarrow\infty$. Based on these observations, we show that the explosive percolation transition in the model should be continuous, contrary to the widely-spread belief of its discontinuity.

Comments: Some corrections during the review
Journal: Phys. Rev. E 84, 020101(R) (2011)
Categories: cond-mat.stat-mech
Related articles: Most relevant | Search more
The bilinear-biquadratic model on the complete graph
arXiv:1412.4230 [cond-mat.stat-mech] (Published 2014-12-13)
The distribution of heat exchanged between two quantum spin chains
Critical percolation clusters in seven dimensions and on a complete graph