Continuum limit of finite temperature from lattice Monte Carlo
arXiv:hep-lat/9610038 · doi:10.1016/S0550-3213(97)00082-5
Abstract
The model at finite temperature is simulated on the lattice. For fixed we compute the transition line for by means of Finite Size Scaling techniques. The crossings of a Renormalization Group trajectory with the transition lines of increasing give a well defined limit for the critical temperature in the continuum. By considering different RG trajectories, we compute as a function of the renormalized parameters.
26 pages, Latex, epsfig, 8 figures included
References in corpus (10)
- Is There a Hot Electroweak Phase Transition at $m_H\gsim m_W$?
- 3D Physics and the Electroweak Phase Transition: Perturbation Theory
- 3d physics and the electroweak phase transition: a framework for lattice Monte Carlo analysis
- Is there a monopole problem?
- On Symmetry Non-Restoration at High Temperature
- Can Symmetry non-restoration solve the Monopole Problem?
- High Temperature Phase Transitions without Infrared Divergences
- On the CJT Formalism in Multi-Field Theories
- High Temperature Phase Transition in Two-Scalar Theories
- Renormalization Group Study of the soliton mass on the (lambda Phi^4)_{1+1} lattice model
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- One-loop results for kink and domain wall profiles at zero and finite temperature
- Alternative Dimensional Reduction via the Density Matrix
- A Monte Carlo study of Inverse Symmetry Breaking
- A lattice Monte Carlo study of Inverse Symmetry Breaking in a two-scalar model in three dimensions
- The scaling region of the lattice O(N) sigma model at finite temperature