Quantum Network Models and Classical Localization Problems
arXiv:1004.3198 · doi:10.1142/S0217979210064678
Abstract
A review is given of quantum network models in class C which, on a suitable 2d lattice, describe the spin quantum Hall plateau transition. On a general class of graphs, however, many observables of such models can be mapped to those of a classical walk in a random environment, thus relating questions of quantum and classical localization. In many cases it is possible to make rigorous statements about the latter through the relation to associated percolation problems, in both two and three dimensions.
23 pages. To appear in '50 years of Anderson Localization', E Abrahams, ed. (World Scientific).
References in corpus (3)
Cited by in corpus (9)
- Emergent Symmetry at the Néel to Valence-Bond-Solid Transition
- Emergence and spontaneous breaking of approximate O(4) symmetry at a weakly first-order deconfined phase transition
- Matrix Kesten Recursion, Inverse-Wishart Ensemble and Fermions in a Morse Potential
- Interference in disordered systems: A particle in a complex random landscape
- Entanglement dynamics in monitored Kitaev circuits: loop models, symmetry classification, and quantum Lifshitz scaling
- Lower bound for the escape probability in the Lorentz Mirror Model on the lattice
- Theory and Experiments for Disordered Elastic Manifolds, Depinning, Avalanches, and Sandpiles
- On the Manhattan pinball problem
- Stochastic and Quantum Dynamics of Repulsive Particles: from Random Matrix Theory to Trapped Fermions