Entropy of Quantum Markov states on Cayley trees
arXiv:2208.03768 · doi:10.1088/1742-5468/ac8740
Abstract
In this paper, we continue the investigation of quantum Markov states (QMS) and define their mean entropies. Such entropies are explicitly computed under certain conditions. The present work takes a huge leap forward at tackling one of the most important open problems in quantum probability which concerns the calculations of mean entropies of quantum Markov fields. Moreover, it opens new perspective for the generalization of many interesting results related to the one dimensional quantum Markov states and chains to multi-dimensional cases.
arXiv comment14 pages, JSTAT accepted
References in corpus (13)
- A Practical Introduction to Tensor Networks: Matrix Product States and Projected Entangled Pair States
- A class of ansatz wave functions for 1D spin systems and their relation to DMRG
- Renormalization and tensor product states in spin chains and lattices
- Matrix Product Unitaries: Structure, Symmetries, and Topological Invariants
- Quantum Markov fields on graphs
- On Quantum Markov Chains on Cayley tree I: uniqueness of the associated chain with XY-model on the Cayley tree of order two
- Phase transitions for Quantum Markov Chains associated with Ising type models on a Cayley tree
- Diagonalizability of non homogeneous quantum Markov states and associated von Neumann algebras
- Quantum Markov States on Cayley trees
- Refinement of quantum Markov states on trees
- Gibbs measures over locally tree-like graphs and percolative entropy over infinite regular trees
- Quantum Markov Chains on the Comb graphs: Ising model
- Markov property and strong additivity of von Neumann entropy for graded quantum systems