Published September 15, 1993
| Version v1
Journal article
Hydrodynamic stability analysis of burning bubbles in electroweak theory and in QCD
- 1. Stanford Linear Accelerator Center, Stanford University, Stanford, California 94309 (United States)
- 2. Department of Theoretical Physics, University of Helsinki, Siltavuorenpenger 20 C, 00170 Helsinki (Finland)
- 3. Santa Cruz Institute for Particle Physics, University of California, Santa Cruz, California 95064 (United States)
- 4. Theoretical Physics Institute, School of Physics and Astronomy, 116 Church St. S.E., University of Minnesota, Minneapolis, Minnesota 55455 (United States)
Description
Assuming that the electroweak and QCD phase transitions are first order, upon supercooling, bubbles of the new phase appear. These bubbles grow to macroscopic sizes compared to the natural scales associated with the Compton wavelengths of particle excitations. They propagate by burning the old phase into the new phase at the surface of the bubble. We study the hydrodynamic stability of the burning and find that for the velocities of interest for cosmology in the electroweak phase transition, the shape of the bubble wall is stable under hydrodynamic perturbations. Bubbles formed in the cosmological QCD phase transition are found to be a borderline case between stability and instability
Additional details
Publishing Information
- Journal Title
- Physical Review. D, Particles Fields
- Journal Volume
- 48
- Journal Issue
- 6
- Journal Page Range
- p. 2477-2492.
- ISSN
- 0556-2821
- CODEN
- PRVDAQ
INIS
- Country of Publication
- United States
- Country of Input or Organization
- United States
- INIS RN
- 25004137
- Subject category
- S72: PHYSICS OF ELEMENTARY PARTICLES AND FIELDS; S72: PHYSICS OF ELEMENTARY PARTICLES AND FIELDS;
- Descriptors DEI
- ASYMMETRY; BARYON NUMBER; BUBBLES; COSMOLOGY; CP INVARIANCE; HYDRODYNAMICS; PHASE TRANSFORMATIONS; QUANTUM CHROMODYNAMICS; STABILITY; STANDARD MODEL; SYMMETRY BREAKING
- Descriptors DEC
- FIELD THEORIES; FLUID MECHANICS; GRAND UNIFIED THEORY; INVARIANCE PRINCIPLES; MATHEMATICAL MODELS; MECHANICS; PARTICLE MODELS; QUANTUM FIELD THEORY; UNIFIED GAUGE MODELS