2017
DOI: 10.1088/1742-5468/aa690c
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Universality of the third-order phase transition in the constrained Coulomb gas

Abstract: The free energy at zero temperature of Coulomb gas systems in generic dimension is considered as a function of a volume constraint. The transition between the 'pulled' and the 'pushed' phases is characterised as a third-order phase transition, in all dimensions and for a rather large class of isotropic potentials. This suggests that the critical behaviour of the free energy at the 'pulled-to-pushed' transition may be universal, i.e., to some extent independent of the dimension and the details of the pairwise i… Show more

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Cited by 41 publications
(62 citation statements)
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References 53 publications
(96 reference statements)
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“…This transition is not of the "pushed-pulled" type like the one at w = 2α, but rather a condensation-type transition as all charges accumulate at the wall for w ≤ −2α. Interestingly, a similar third-order phase transition between the pushed and the pulled phase was recently found [40] by analysing large deviation functions associated with the position of the farthest charge in a d-dimensional jellium model. The limiting distribution of the position of the farthest charge is known in d = 1 (and was computed by Baxter, see Eq.…”
Section: Left Large Deviationsupporting
confidence: 70%
“…This transition is not of the "pushed-pulled" type like the one at w = 2α, but rather a condensation-type transition as all charges accumulate at the wall for w ≤ −2α. Interestingly, a similar third-order phase transition between the pushed and the pulled phase was recently found [40] by analysing large deviation functions associated with the position of the farthest charge in a d-dimensional jellium model. The limiting distribution of the position of the farthest charge is known in d = 1 (and was computed by Baxter, see Eq.…”
Section: Left Large Deviationsupporting
confidence: 70%
“…It would be interesting to explicitly check this, by adding a FI parameter in [25] and doing the corresponding analysis. Finally, it is worth mentioning that at first apparently unrelated works in statistical mechanics, study in fact similar problems and systems [29,30]. and the saddle point equation reduces to the trivial expression f ≡ 0.…”
Section: Discussionmentioning
confidence: 99%
“…The saddle point equation in this case carries only one theta function: 29) and the saddle point is obtained in each phase from this latter expression.…”
Section: Antisymmetric Wilson Loop With One Mass Scalementioning
confidence: 99%
“…In two dimensions there are difficulties connected with the long-range nature of the − log |x| potential, and we shall not discuss this here." For more background literature on the jellium, see also [3,41,27,1,42,22]. See in particular [51], for the fluctuations of non-neutral jelliums.…”
Section: The Wigner Jellium and Coulomb Gasesmentioning
confidence: 99%