Classical limit in terms of symbolic dynamics for the quantum baker's map
arXiv:quant-ph/9908040 · doi:10.1103/PhysRevE.61.5108
Abstract
We derive a simple closed form for the matrix elements of the quantum baker's map that shows that the map is an approximate shift in a symbolic representation based on discrete phase space. We use this result to give a formal proof that the quantum baker's map approaches a classical Bernoulli shift in the limit of a small effective Plank's constant.
12 pages, LaTex, typos corrected
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- Entangling power of baker's map: Role of symmetries
- Decoherence and linear entropy increase in the quantum baker's map
- The classical limit for a class of quantum baker's maps
- Generalized Quantum Baker Maps as perturbations of a simple kernel
- On Quantum - Classical Correspondence for Baker's Map
- A simple necessary decoherence condition for a set of histories
- Reflections on the hyperbolic plane
- Initial states and decoherence of histories
- Classical predictability and coarse-grained evolution of the quantum baker's map