Algebraic Structures and Eigenstates for Integrable Collective Field Theories
arXiv:hep-th/9202065 · doi:10.1007/BF02096570
Abstract
Conditions for the construction of polynomial eigen--operators for the Hamiltonian of collective string field theories are explored. Such eigen--operators arise for only one monomial potential in the collective field theory. They form a --algebra isomorphic to the algebra of vertex operators in 2d gravity. Polynomial potentials of orders only strictly larger or smaller than 2 have no non--zero--energy polynomial eigen--operators. This analysis leads us to consider a particular potential . A Lie algebra of polynomial eigen--operators is then constructed for this potential. It is a symmetric 2--index Lie algebra, also represented as a sub--algebra of
27 pages
References in corpus (3)
Cited by in corpus (17)
- Collective fields, Calogero-Sutherland model and generalized matrix models
- Excited States of Calogero-Sutherland Model and Singular Vectors of the Algebra
- Classical R-matrix structure for the Calogero model
- A Deformed Matrix Model and the Black Hole Background in Two-Dimensional String Theory
- w_{\infty} Algebras, Conformal Mechanics, and Black Holes
- The Exact -matrix of the Deformed Matrix Model
- Quantum and Classical Aspects of Deformed Strings.
- Collective field theory of the matrix-vector model
- States and quantum effects in the collective field theory of a deformed matrix model
- Quantum toroidal algebras and solvable structures in gauge/string theory
- The effective theory of the Calogero- Sutherland model and Luttinger systems.
- Topological B-Model, Matrix Models, Strings and Quiver Gauge Theories
- Interacting Theory of Collective and Topological Fields in 2 Dimensions
- Observable algebra for the rational and trigonometric Euler Calogero Moser models
- The Collective Field Theory of a Singular Supersymmetric Matrix Model
- Integrable extensions of the rational and trigonometric Calogero Moser potentials
- Higher Spin Gravity in and Folds on Fermi Surface