An optomechanical limit-cycle model functions as an autonomous quantum pendulum clock powered by incoherent thermal baths, overcoming the thermodynamic uncertainty relation and approaching classical behavior with more emitters.
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TI MPS with permutational symmetry (entanglement similar across bipartitions) are shown to be trivial (product states or few superpositions); extends to generic MPS and states like W and Dicke approximately.
Experimental observation that light from a driven dense ensemble of two-level atoms exhibits non-Gaussian statistics due to higher-order atomic correlations without first-order coherence.
citing papers explorer
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A Quantum Mechanical Pendulum Clock
An optomechanical limit-cycle model functions as an autonomous quantum pendulum clock powered by incoherent thermal baths, overcoming the thermodynamic uncertainty relation and approaching classical behavior with more emitters.
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The product structure of MPS-under-permutations
TI MPS with permutational symmetry (entanglement similar across bipartitions) are shown to be trivial (product states or few superpositions); extends to generic MPS and states like W and Dicke approximately.
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Non-Gaussian correlations in the steady-state of driven-dissipative clouds of two-level atoms
Experimental observation that light from a driven dense ensemble of two-level atoms exhibits non-Gaussian statistics due to higher-order atomic correlations without first-order coherence.