Asymptotic Factorisation of the Ground-State for SU(N)-invariant Supersymmetric Matrix-Models
arXiv:hep-th/0206043
Abstract
We give a simple - straightforward and rigorous - derivation that when the eigenvalues of one of the matrices in the SU(N) invariant supersymmetric matrix model become large (and well separated from each other) the ground-state wavefunction (resp. asymptotic zero-energy solution of the corresponding differential equation) factorizes, for all , into a product of supersymmetric harmonic oscillator wavefunctions (involving the `off-diagonal' degrees of freedom) and a wavefunction that is annihilated by the free supercharge formed out of all `diagonal' (Cartan sub-algebra) degrees of freedom.
References in corpus (8)
- D-particle bound states and generalized instantons
- Monte Carlo Approach to M-Theory
- Normalized Vacuum States in N = 4 Supersymmetric Yang--Mills Quantum Mechanics with Any Gauge Group
- Asymptotic Search for Ground States of SU(2) Matrix Theory
- Asymptotic Form of Zero Energy Wave Functions in Supersymmetric Matrix Models
- On Zero-Mass Ground States in Super-Membrane Matrix Models
- On Asymptotic Hamiltonian for SU(N) Matrix Theory
- On The Construction of Zero Energy States in Supersymmetric Matrix Models III
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- Optimized Fock space in the large N limit of quartic interactions in Matrix Models