Quantum Affine Symmetry as Generalized Supersymmetry
arXiv:hep-th/9210009 · doi:10.1016/0550-3213(93)90309-D
Abstract
The quantum affine $\CU_q (\hat{sl(2)}) $ symmetry is studied when is an even root of unity. The structure of this algebra allows a natural generalization of N=2 supersymmetry algebra. In particular it is found that the momentum operators , and thus the Hamiltonian, can be written as generalized multi-commutators, and can be viewed as new central elements of the algebra $\CU_q (\hat{sl(2)})$. We show that massive particles in (deformations of) integer spin representions of are not allowed in such theories. Generalizations of Witten's index and Bogomolnyi bounds are presented and a preliminary attempt in constructing manifestly $\CU_q (\hat{sl(2)})$ invariant actions as generalized supersymmetric Landau-Ginzburg theories is made.
45 pages
References in corpus (2)
Cited by in corpus (16)
- Boundary energy and boundary states in integrable quantum field theories
- The magnon kinematics of the AdS/CFT correspondence
- Non-local space-time supersymmetry on the lattice
- Fractional supersymmetric Quantum Mechanics as a set of replicas of ordinary supersymmetric Quantum Mechanics
- Fractional supersymmetry and hierarchy of shape invariant potentials
- On Type II strings in exact superconformal non-constant RR backgrounds
- Tunneling in quantum wires II: A new line of IR fixed points
- Trigonometric S-Matrices, Affine Toda Solitons and Supersymmetry
- N=2 boundary supersymmetry in integrable models and perturbed boundary conformal field theory
- A Comment on Masses, Quantum Affine Symmetries and PP-Wave Backgrounds
- On the integrability of N=2 supersymmetric massive theories
- Mingling of the infrared and ultraviolet and the "cosmological constant" for interacting QFT in 2d
- Fractional Statistics in terms of the r-Generalized Fibonacci Sequences
- Sine-Gordon Theory with Higher Spin Supersymmetry and the Massless Limit
- Landau-Ginzburg Lagrangians of minimal -models with an integrable perturbation
- Fractional Supersymmetry As a Matrix Model