Yang-Mills Theory for the Nuclear Collective Model
ORAL · Invited
Abstract
The primary goal of this discussion is to understand the dynamics of collective nuclear rotations. The main theoretical tool to achieve this goal is a gauge theory that uses a bundle connection. The bundle structure connects the angular and vortex degrees of freedom. The novel technique proposed for this research is the Yang-Mills theory of bundle connections. The character of nuclear rotations depends quantitatively on the connection between angular and vortex degrees of freedom. The Yang-Mills equation provides the correct equation for determining this connection. To this end, the underlying differential geometric relationship between Yang-Mills theory and the nuclear collective model will be discussed. Although similar mathematically, the underlying physics is substantially different. Minkowski space is the common base manifold for the Yang-Mills theories of electromagnetism and the electroweak forces; the corresponding gauge groups are U(1), SU(2)xU(1). The base manifold for the proposed Yang-Mills collective model is the space of nuclear rotations and quadrupole deformations; the gauge symmetry is SO(3), the group of vortex motions.
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Publication: N Sparks, G Rosensteel, "Yang-Mills equation for the Nuclear Geometrical Collective Model Connexion", Journal of Physics A: Mathematical and Theoretical, Volume 50, Number 2 (2016)
Presenters
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Nicholas Sparks
Tulane University
Authors
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Nicholas Sparks
Tulane University