Quantum Entropy for the Fuzzy Sphere and its Monopoles
arXiv:1405.6471 · doi:10.1007/JHEP11(2014)078
Abstract
Using generalized bosons, we construct the fuzzy sphere and monopoles on in a reducible representation of . The corresponding quantum states are naturally obtained using the GNS-construction. We show that there is an emergent non-abelian unitary gauge symmetry which is in the commutant of the algebra of observables. The quantum states are necessarily mixed and have non-vanishing von Neumann entropy, which increases monotonically under a bistochastic Markov map. The maximum value of the entropy has a simple relation to the degeneracy of the irreps that constitute the reducible representation that underlies the fuzzy sphere.
arXiv comment21 pages, typos corrected
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- Emergent Gauge Symmetries and Quantum Operations