A microscopic t-DMFT/NCA simulation shows that THz pulses destroy the Kondo state via photoassisted hybridization, and the delayed THz echo is set by the Kondo coherence time, not by superradiance.
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7 Pith papers cite this work. Polarity classification is still indexing.
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Pith papers citing it
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A nonsecular Floquet generalized master equation framework is developed for open ultrastrong cavity-QED, demonstrating that dissipation is governed by quasienergies rather than static dressed resonances.
Neural quantum states simulate dissipative many-body emission dynamics for approximately 40 atoms in dense 1D and 2D arrays, revealing prominent subradiant behavior at late times.
Spectral design via biorthogonal modes and a surrogate objective enables inverse design of atomic positions that concentrate initial excitation on a single subradiant mode for enhanced local-excitation retention.
A symmetry-organized configuration framework classifies superradiant phases in Dicke lattices, explaining multistability in dissipative cases and unique ground-state selection in closed systems.
Exact non-Markovian dynamics and emitted photon wave-packet profiles are derived for a single-photon emitter in a 1D waveguide with a mirror interface.
Nonadiabatic modulation near a quantum critical point strongly boosts photon emission from vacuum fluctuations, enhancing flux and non-classical properties even against thermal noise.
citing papers explorer
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Kondo Echo Dynamics of Terahertz-Pumped Heavy Fermions
A microscopic t-DMFT/NCA simulation shows that THz pulses destroy the Kondo state via photoassisted hybridization, and the delayed THz echo is set by the Kondo coherence time, not by superradiance.
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Floquet Quasienergy-Resolved Dissipation, Dynamics, and Spectroscopy in Ultrastrong Cavity-QED
A nonsecular Floquet generalized master equation framework is developed for open ultrastrong cavity-QED, demonstrating that dissipation is governed by quasienergies rather than static dressed resonances.
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Neural network modeling of many-body super- and sub-radiant dynamics
Neural quantum states simulate dissipative many-body emission dynamics for approximately 40 atoms in dense 1D and 2D arrays, revealing prominent subradiant behavior at late times.
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Spectral design principles for local-excitation retention in impurity-assisted atomic arrays
Spectral design via biorthogonal modes and a surrogate objective enables inverse design of atomic positions that concentrate initial excitation on a single subradiant mode for enhanced local-excitation retention.
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Configuration-based understanding of superradiant phase transitions in Dicke lattices
A symmetry-organized configuration framework classifies superradiant phases in Dicke lattices, explaining multistability in dissipative cases and unique ground-state selection in closed systems.
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Exact dynamics of a single-photon emitter in front of a mirror
Exact non-Markovian dynamics and emitted photon wave-packet profiles are derived for a single-photon emitter in a 1D waveguide with a mirror interface.
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Quantum Vacuum Radiation Near a Critical Point
Nonadiabatic modulation near a quantum critical point strongly boosts photon emission from vacuum fluctuations, enhancing flux and non-classical properties even against thermal noise.