Competing heterogeneities shape ordering via higher-order interactions

Fuente: arXiv
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Autori principali: Son, Gangmin, Battiston, Federico, Lee, Deok-Sun, Goh, K. -I.
Natura: Preprint
Pubblicazione: 2026
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author Son, Gangmin
Battiston, Federico
Lee, Deok-Sun
Goh, K. -I.
author_facet Son, Gangmin
Battiston, Federico
Lee, Deok-Sun
Goh, K. -I.
contents Higher-order interactions admit richer structural heterogeneity than pairwise networks. To understand how heterogeneity impacts collective phenomena we develop a framework based on the cavity method and apply it to the simplicial Ising model on heterogeneous hypergraphs. Unlike in homogeneous structures, group size and node degree play fundamentally different roles: size heterogeneity sharpens the transition via large-group unanimity, while degree heterogeneity softens it as hubs cooperatively seed ordering with non-hubs. Under either type of heterogeneity, continuous--discontinuous double transitions can arise, where the symmetry-breaking continuous transition is driven by pairs or by hubs, respectively. When both heterogeneities coexist, cross-order degree correlations further modulate the phase diagram, with anticorrelation delaying the group-driven discontinuous jump and broadening the hysteretic region. Our results reveal the intricate interplay between size and degree heterogeneities in collective phenomena beyond pairwise interactions.
format Preprint
id arxiv_https___arxiv_org_abs_2605_30948
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Competing heterogeneities shape ordering via higher-order interactions
Son, Gangmin
Battiston, Federico
Lee, Deok-Sun
Goh, K. -I.
Statistical Mechanics
Physics and Society
Higher-order interactions admit richer structural heterogeneity than pairwise networks. To understand how heterogeneity impacts collective phenomena we develop a framework based on the cavity method and apply it to the simplicial Ising model on heterogeneous hypergraphs. Unlike in homogeneous structures, group size and node degree play fundamentally different roles: size heterogeneity sharpens the transition via large-group unanimity, while degree heterogeneity softens it as hubs cooperatively seed ordering with non-hubs. Under either type of heterogeneity, continuous--discontinuous double transitions can arise, where the symmetry-breaking continuous transition is driven by pairs or by hubs, respectively. When both heterogeneities coexist, cross-order degree correlations further modulate the phase diagram, with anticorrelation delaying the group-driven discontinuous jump and broadening the hysteretic region. Our results reveal the intricate interplay between size and degree heterogeneities in collective phenomena beyond pairwise interactions.
title Competing heterogeneities shape ordering via higher-order interactions
topic Statistical Mechanics
Physics and Society
url https://arxiv.org/abs/2605.30948