The Hamiltonian Analysis for Yang-Mills Theory on
arXiv:0807.2131 · doi:10.1016/j.nuclphysb.2009.03.007
Abstract
Pure Yang-Mills theory on is analyzed in a gauge-invariant Hamiltonian formalism. Using a suitable coordinatization for the sphere and a gauge-invariant matrix parametrization for the gauge potentials, we develop the Hamiltonian formalism in a manner that closely parallels previous analysis on . The volume measure on the physical configuration space of the gauge theory, the nonperturbative mass-gap and the leading term of the vacuum wave functional are discussed using a point-splitting regularization. All the results carry over smoothly to known results on in the limit in which the sphere is de-compactified to a plane.
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- On the Gauge-invariant Functional Measure for Gauge Fields on CP^2
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- The Hamiltonian Approach to Yang-Mills (2+1): An Update and Corrections to String Tension
- A Supersymmetry Preserving Mass-Deformation of N=1 Super Yang-Mills in D=2+1
- Holomorphicity, Vortex Attachment, Gauge Invariance and the Fractional Quantum Hall Effect