Dissipative Dicke Time Quasicrystals

Fuente: arXiv
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Auteurs principaux: Anisur, Sk, Choudhury, Sayan
Format: Preprint
Publié: 2026
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author Anisur, Sk
Choudhury, Sayan
author_facet Anisur, Sk
Choudhury, Sayan
contents We investigate the emergence of time quasicrystals (TQCs) in the open Dicke model, subjected to a quasi-periodic Fibonacci drive. TQCs are characterized by a robust sub-harmonic quasi-periodic response that is qualitatively distinct from the external drive. By directly analyzing the dynamics of the system in the thermodynamic limit, we establish the existence of TQC order in this system for a wide parameter regime. Remarkably, we demonstrate that this behavior persists even in the deep quantum regime with only two qubits. We systematically study the dependence of the TQC lifetime, $τ^{\ast}$, on the number of qubits and demonstrate that $τ^{\ast}$ increases monotonically with the system size. Our work demonstrates that quasi-periodically driven dissipative quantum systems can serve as a powerful platform for realizing novel non-equilibrium phases of matter.
format Preprint
id arxiv_https___arxiv_org_abs_2602_05994
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Dissipative Dicke Time Quasicrystals
Anisur, Sk
Choudhury, Sayan
Quantum Physics
Quantum Gases
Statistical Mechanics
We investigate the emergence of time quasicrystals (TQCs) in the open Dicke model, subjected to a quasi-periodic Fibonacci drive. TQCs are characterized by a robust sub-harmonic quasi-periodic response that is qualitatively distinct from the external drive. By directly analyzing the dynamics of the system in the thermodynamic limit, we establish the existence of TQC order in this system for a wide parameter regime. Remarkably, we demonstrate that this behavior persists even in the deep quantum regime with only two qubits. We systematically study the dependence of the TQC lifetime, $τ^{\ast}$, on the number of qubits and demonstrate that $τ^{\ast}$ increases monotonically with the system size. Our work demonstrates that quasi-periodically driven dissipative quantum systems can serve as a powerful platform for realizing novel non-equilibrium phases of matter.
title Dissipative Dicke Time Quasicrystals
topic Quantum Physics
Quantum Gases
Statistical Mechanics
url https://arxiv.org/abs/2602.05994