Langer’s Nucleation Rate Reproduced on the Lattice

We show that Langer's rate of bubble nucleation is quantitatively correct up to small higher-loop corrections, in comparison to lattice simulations. These results are a significant advancement on decades of lattice studies showing only qualitative trends, and the first showing agreement for any conservative field theory. We confirm that the failure to fully thermalize the metastable phase explains discrepancies with recent lattice studies that found disagreement with Langer's rate. The key theoretical development is the translation of Langer's perturbative definition of a thermal metastable phase into a nonperturbative statement that can be implemented on the lattice. Our statistical and systematic errors are small enough to allow us to measure on the lattice the coefficient of the two-loop contribution, missing from the perturbative prediction. Our conclusions also exclude a possible systematic uncertainty in ^{3}He experiments.

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Publication Details

Journal
Physical Review Letters
Published
2026-02-03
DOI
https://doi.org/10.1103/c75g-xbw4
Primary Topic
nanoparticles nucleation surface interactions
Type
article
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article

Langer’s Nucleation Rate Reproduced on the Lattice

Anonymous, Oliver Gould
Physical Review Letters
nanoparticles nucleation surface interactions
article

Langer’s Nucleation Rate Reproduced on the Lattice

Anonymous, Oliver Gould
article en

Abstract

We show that Langer's rate of bubble nucleation is quantitatively correct up to small higher-loop corrections, in comparison to lattice simulations. These results are a significant advancement on decades of lattice studies showing only qualitative trends, and the first showing agreement for any conservative field theory. We confirm that the failure to fully thermalize the metastable phase explains discrepancies with recent lattice studies that found disagreement with Langer's rate. The key theoretical development is the translation of Langer's perturbative definition of a thermal metastable phase into a nonperturbative statement that can be implemented on the lattice. Our statistical and systematic errors are small enough to allow us to measure on the lattice the coefficient of the two-loop contribution, missing from the perturbative prediction. Our conclusions also exclude a possible systematic uncertainty in ^{3}He experiments.

Physical Review LettersVol. 136(8)
University of Nottingham (GB)
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Openalex Percentile: Top 76%
nanoparticles nucleation surface interactions
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