Prethermal discrete time crystals in driven dipolar 13C spins enable frequency-selective AC magnetic field sensing with up to three orders of magnitude lifetime extension via resonant response.
Title resolution pending
4 Pith papers cite this work. Polarity classification is still indexing.
4
Pith papers citing it
citation-role summary
background 1
citation-polarity summary
fields
quant-ph 4verdicts
UNVERDICTED 4roles
background 1polarities
background 1representative citing papers
In chaotic quantum systems with conservation laws, states initially farther from equilibrium can thermalize faster than closer ones via hydrodynamic relaxation differences, realizing the quantum Mpemba effect.
In the open coupled-top Dicke model, photon loss induces spontaneous synchronization and two distinct dissipative quantum scars, one protected with persistent revivals and one showing slow decay linked to chaos-assisted tunneling for small spins.
Tuning polariton splitting in a chaotic Tavis-Cummings model produces a low-coupling thermalizing regime driven by quantum chaos and a high-coupling non-thermalizing regime that suppresses ergodicity, with direct effects on cavity photon correlations.
citing papers explorer
-
Sensing with discrete time crystals
Prethermal discrete time crystals in driven dipolar 13C spins enable frequency-selective AC magnetic field sensing with up to three orders of magnitude lifetime extension via resonant response.
-
Quantum Mpemba effect in chaotic systems with conservation laws
In chaotic quantum systems with conservation laws, states initially farther from equilibrium can thermalize faster than closer ones via hydrodynamic relaxation differences, realizing the quantum Mpemba effect.
-
Chaos to Synchronization and Dissipative Quantum Scarring in Open Coupled top-Dicke model in a Lossy Cavity
In the open coupled-top Dicke model, photon loss induces spontaneous synchronization and two distinct dissipative quantum scars, one protected with persistent revivals and one showing slow decay linked to chaos-assisted tunneling for small spins.
-
Thermalization Regimes in a Chaotic Tavis-Cummings Model
Tuning polariton splitting in a chaotic Tavis-Cummings model produces a low-coupling thermalizing regime driven by quantum chaos and a high-coupling non-thermalizing regime that suppresses ergodicity, with direct effects on cavity photon correlations.