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On the microscopic propagation speed of long-range quantum many-body systems
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On the microscopic propagation speed of long-range quantum many-body systems
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We consider the time-dependent Schr\"odinger equation that is generated on the bosonic Fock space by a long-range quantum many-body Hamiltonian. We derive the first bound on the maximal speed of particle transport in these systems that is thermodynamically stable and holds all the way down to microscopic length scales. For this, we develop a novel multiscale rendition of the ASTLO (adiabatic spacetime localization observables) method. Our result opens the door to deriving the first thermodynamically stable Lieb-Robinson bounds on general local operators for these long-range interacting bosonic systems.
Forward citations
Cited by 3 Pith papers
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Macroscopic Particle Transport in Dissipative Long-Range Bosonic Systems
Derives bounds on minimal transport time and maximal distance for bosons in dissipative long-range systems, showing distinctions by loss type and the enabling role of decoherence-free subspaces for long-distance perfe...
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Light-Cone Structure of Propagation of Entanglement
Existence of an effective light-cone for entanglement propagation in bipartite systems with localized couplings, yielding a hard lower bound on transport time under ideal conditions.
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Light-Cone Structure of Propagation of Entanglement
Establishes existence of effective light-cone for entanglement propagation in bipartite systems with localized couplings, yielding lower bound on transport time under ideal conditions.
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