The standard vacuum bounce formalism suffers from inconsistencies when applied to thermal bubble nucleation, for which ad hoc workarounds are commonly adopted. Identifying the length scales on which nucleation takes place, we demonstrate how the construction of an effective description for these scales naturally resolves the problems of the standard vacuum bounce formalism. Further, by utilising high-temperature dimensional reduction, we make a connection to classical nucleation theory. This offers a clear physical picture of thermal bubble nucleation, as well as a computational framework which can then be pushed to higher accuracy. We demonstrate the method for three qualitatively different quantum field theories
On the basis of Borel resummation, we propose a systematical improvement of bounce calculus of quant...
We estimate bubble-nucleation rates for cosmological phase transitions. We concentrate on the evalua...
We revisit the perturbative expansion at high temperature and investigate its convergence by inspect...
The standard vacuum bounce formalism suffers from inconsistencies when applied to thermal bubble nuc...
A gauge-invariant framework for computing bubble nucleation rates at finite temperature in the prese...
The theory of false vacuum decay in a thermal system may have a cross-over from predominantly therma...
This paper extends classical results by Langer and Kramers and combines them with modern methods fro...
We apply the modern effective field theory framework to study the nucleation rate in high-temperatur...
Bubble nucleation has been studied on lattices using phenomenological Langevin equations. Recently t...
One of the key observables in a gravitational wave power spectrum from a first order phase transitio...
Vapor bubbles are formed in liquids by two mechanisms: evaporation (temperature above the boiling th...
This paper extends classical results by Langer and Kramers [1-3] and combines them with modern metho...
Vapor bubbles are formed in liquids by two mechanisms: evaporation (temperature above the boiling th...
First order electroweak phase transitions (EWPTs) are an attractive area of research. This is mainly...
We discuss the computation of the quantum effective action of strongly interacting field theories us...
On the basis of Borel resummation, we propose a systematical improvement of bounce calculus of quant...
We estimate bubble-nucleation rates for cosmological phase transitions. We concentrate on the evalua...
We revisit the perturbative expansion at high temperature and investigate its convergence by inspect...
The standard vacuum bounce formalism suffers from inconsistencies when applied to thermal bubble nuc...
A gauge-invariant framework for computing bubble nucleation rates at finite temperature in the prese...
The theory of false vacuum decay in a thermal system may have a cross-over from predominantly therma...
This paper extends classical results by Langer and Kramers and combines them with modern methods fro...
We apply the modern effective field theory framework to study the nucleation rate in high-temperatur...
Bubble nucleation has been studied on lattices using phenomenological Langevin equations. Recently t...
One of the key observables in a gravitational wave power spectrum from a first order phase transitio...
Vapor bubbles are formed in liquids by two mechanisms: evaporation (temperature above the boiling th...
This paper extends classical results by Langer and Kramers [1-3] and combines them with modern metho...
Vapor bubbles are formed in liquids by two mechanisms: evaporation (temperature above the boiling th...
First order electroweak phase transitions (EWPTs) are an attractive area of research. This is mainly...
We discuss the computation of the quantum effective action of strongly interacting field theories us...
On the basis of Borel resummation, we propose a systematical improvement of bounce calculus of quant...
We estimate bubble-nucleation rates for cosmological phase transitions. We concentrate on the evalua...
We revisit the perturbative expansion at high temperature and investigate its convergence by inspect...