Dissipative dynamics of an extended magnetic nanostructure: Spin necklace in a metallic environment
arXiv:cond-mat/0305534 · doi:10.1103/PhysRevLett.91.147204
Abstract
We study theoretically the dynamics of an ``xxz'' spin necklace coupled to a conduction electron sea, a model system for a nanostructure in a dissipative environment. We extract the long-time behavior via a mapping to a multichannel Coulomb gas problem followed by a scaling analysis. The strong quantum fluctuations of the necklace cause a nontrivial dependence of couplings on system size which we extract via an analysis involving the ``boundary condition changing operator'', and confirm via a detailed numerical evaluation of one case.
4 pages, 4 figures
Cited by in corpus (10)
- Disorder-Driven Non-Fermi Liquid Behavior of Correlated Electrons
- Quantum Griffiths effects in itinerant Heisenberg magnets
- Prediction of the capacitance lineshape in two-channel quantum dots
- Mapping of the Anisotropic Two-channel Anderson Model onto a Fermi-Majorana bi-Resonant Level Model
- Bosonization approach to the mixed-valence two-channel Kondo problem
- Enhanced Two-Channel Kondo Physics in a Quantum Box Device
- Effective classical correspondence of the Mott transition
- Systematic compactification of the two-channel Kondo model. II. Comparative study of scaling and universality
- Proposal for a two-channel quantum dot setup: Prediction for the capacitance lineshape
- Bosonization solution of the Kondo lattice in a Luttinger liquid