Self-dual sectors for scalar field theories in (1 + 1) dimensions
arXiv:1808.10052 · doi:10.1007/JHEP01(2019)020
Abstract
We use ideas of generalized self-duality conditions to construct real scalar field theories in (1 + 1)-dimensions with exact self dual sectors. The approach is based on a pre-potential U that defines the topological charge and the potential energy of these theories. In our algebraic method to construct the required pre-potentials we use the representation theory of Lie groups. This approach leads naturally to an infinite set of degenerate vacua and so to topologically non-trivial self-dual solutions of these models. We present explicit examples for the groups SU(2), SU(3) and SO(5) and discuss some properties of these solutions.
39 pages, 17 figures
References in corpus (6)
- A BPS Skyrme model and baryons at large Nc
- Forces between Kinks and Antikinks with Long-range Tails
- The concept of quasi-integrability: a concrete example
- Kink dynamics in a system of two coupled scalar fields in two space-time dimensions
- The First-Order Euler-Lagrange equations and some of their uses
- Force between Kinks with Long-range Tails
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- Compact kink and its interaction with compact oscillons
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- BPS states for scalar field theories based on and algebras