A Gauge-Independent Mechanism for Confinement and Mass Gap: Part I -- The General Framework
arXiv:0908.1889 · doi:10.1016/j.nuclphysb.2010.03.007
Abstract
We propose a gauge-independent mechanism for the area-law behavior of Wilson loop expectation values in terms of worldsheets spanning Wilson loops interacting with the spin foams that contribute to the vacuum partition function. The method uses an exact transformation of lattice-regularized Yang-Mills theory that is valid for all couplings. Within this framework, some natural conjectures can be made as to what physical mechanism enforces the confinement property in the continuum (weak coupling) limit. Details for the SU(2) case in three dimensions are provided in a companion paper.
16 pages, 4 figures
References in corpus (12)
- A numerical study of confinement in compact QED
- A numerical study of a confined system in compact U(1) lattice gauge theory in 4D
- Dual Computations of Non-abelian Yang-Mills on the Lattice
- Pushing Further the Asymptotics of the 6j-symbol
- The Ponzano-Regge asymptotic of the 6j symbol: an elementary proof
- A Dual Algorithm for Non-abelian Yang-Mills coupled to Dynamical Fermions
- A Dual Non-abelian Yang-Mills Amplitude in Four Dimensions
- 6J Symbols Duality Relations
- Analytic derivation of dual gluons and monopoles from SU(2) lattice Yang-Mills theory. II. Spin foam representation
- On the volume conjecture for classical spin networks
- Dual representation of Polyakov loop in 3d SU(2) lattice Yang-Mills theory
- An exact string representation of 3d SU(2) lattice Yang--Mills theory
Cited by in corpus (4)
- Approaches to the sign problem in lattice field theory
- Dual lattice representations for O(N) and CP(N-1) models with a chemical potential
- Abelian color cycles: a new approach to strong coupling expansion and dual representations for non-abelian lattice gauge theory
- A Gauge-Independent Mechanism for Confinement and Mass Gap: Part II -- G=SU(2) and D=3