Quantum dissipative adaptation with cascaded photons
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Abstract
Classical dissipative adaptation is a hypothetical non-equilibrium thermodynamic principle of self-organization in driven matter, relating transition probabilities with the non-equilibrium work performed by an external drive on dissipative matter. Recently, the dissipative adaptation hypothesis was extended to a quantum regime, with a theoretical model where only one single-photon pulse drives each atom of an ensemble. Here, we further generalize that quantum model by analytically showing that N cascaded single-photon pulses driving each atom still fulfills a quantum dissipative adaptation. Interestingly, we find that the level of self-organization achieved with two pulses can be matched with a single effective pulse only up to a threshold, above which the presence of more photons provide unparalleled degrees of self-organization.Keywords
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This publication has 20 references indexed in Scilit:
- Emergence of energy-avoiding and energy-seeking behaviors in nonequilibrium dissipative quantum systemsCommunications Physics, 2022
- Self-replication of a quantum artificial organism driven by single-photon pulsesScientific Reports, 2021
- Quantum dissipative adaptationCommunications Physics, 2021
- Dissipative self-organization in optical spaceNature Photonics, 2018
- Energy consumption in chemical fuel-driven self-assemblyNature Nanotechnology, 2018
- Dissipative adaptation in driven self-assembly leading to self-dividing fibrilsNature Nanotechnology, 2018
- Microwave photonics with superconducting quantum circuitsPhysics Reports, 2017
- Dissipative adaptation in driven self-assemblyNature Nanotechnology, 2015
- Selective Optical Assembly of Highly Uniform Nanoparticles by Doughnut-Shaped BeamsScientific Reports, 2013
- Biological order, structure and instabilitiesQuarterly Reviews of Biophysics, 1971