Abstract
We consider Dyson models, Ising models with slow polynomial decay, at low temperature and show that its Gibbs measures deep in the phase transition region are not g-measures. The main ingredient in the proof is the occurrence of an entropic repulsion effect, which follows from the mesoscopic stability of a (single-point) interface for these long-range models in the phase transition region.
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Acknowledgements
We thank the referees for a number of helpful remarks and suggestions. We also thank S. Bethuelsen, M. Cassandro, L. Cioletti, D. Conache, R. Fernández, S. Gallo, G. Iacobelli, G. Maillard, F. Paccaut, P. Picco, and E. Verbitskiy for various helpful conversations over the years. We thank Evgeny Verbitskiy for providing us with [4] and Jorge Littin for providing us with [59]. RB is partially supported by the Dutch stochastics cluster STAR, by FAPESP Grants 2011/16265-8, 2016/08518-7 and 2016/25053-8, CNPq Grants 453985/2016-5, 312112/2015-7 and 446658/2014-6. EOE is supported by FAPESP Grants 2014/10637-9 and 2015/14434-8. ALN has benefited from Dutch supports (STAR, EURANDOM, Lorentz Center, TU Delft, RU Groningen) for short research visits to the Netherlands and from Franco-Dutch supports (CNRS, Networks) for a longer research visit at the CNRS UMI Eurandom during the academic year 2017–2018, when this work was achieved.
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Bissacot, R., Endo, E.O., van Enter, A.C.D. et al. Entropic Repulsion and Lack of the g-Measure Property for Dyson Models. Commun. Math. Phys. 363, 767–788 (2018). https://doi.org/10.1007/s00220-018-3233-6
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DOI: https://doi.org/10.1007/s00220-018-3233-6