Parametric Phase-Locking of Hydrogen-Bond Networks: High-Frequency Floquet Dressing of Liquid Water Topology

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Main Author: Claudia Attaianese
Format: Recurso digital
Language:English
Published: Zenodo 2026
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author Claudia Attaianese
author_facet Claudia Attaianese
contents <p>This work presents a theoretical framework for dynamically modifying the structural dynamics of liquid water using high-frequency parametric driving.</p> <p>Modeling water as a dense network of interacting dipolar rotors, we analyze the effect of a fast, coherent electromagnetic field in the multi-terahertz regime using Floquet averaging techniques.</p> <p>We show that high-frequency driving induces a renormalization of dipole-dipole interactions via a Bessel-function dependence, effectively modifying the orientational energy landscape.</p> <p>This mechanism can significantly reduce rotational diffusion and extend hydrogen-bond lifetimes, leading to a transition toward a long-lived prethermal regime with enhanced structural correlations.</p> <p>The model predicts a crossover from rapidly decorrelating liquid dynamics to a dynamically stabilized state with increased tetrahedral ordering under sufficiently strong driving.</p> <p>This work provides a physically motivated framework for controlling the dynamics and topology of dipolar liquids through non-equilibrium parametric forcing.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_19204400
institution Zenodo
language eng
publishDate 2026
publisher Zenodo
record_format zenodo
spellingShingle Parametric Phase-Locking of Hydrogen-Bond Networks: High-Frequency Floquet Dressing of Liquid Water Topology
Claudia Attaianese
liquid water
hydrogen bonding
dipolar interactions
Floquet theory
nonlinear dynamics
statistical physics
parametric stabilization
orientational dynamics
complex systems
non-equilibrium systems
<p>This work presents a theoretical framework for dynamically modifying the structural dynamics of liquid water using high-frequency parametric driving.</p> <p>Modeling water as a dense network of interacting dipolar rotors, we analyze the effect of a fast, coherent electromagnetic field in the multi-terahertz regime using Floquet averaging techniques.</p> <p>We show that high-frequency driving induces a renormalization of dipole-dipole interactions via a Bessel-function dependence, effectively modifying the orientational energy landscape.</p> <p>This mechanism can significantly reduce rotational diffusion and extend hydrogen-bond lifetimes, leading to a transition toward a long-lived prethermal regime with enhanced structural correlations.</p> <p>The model predicts a crossover from rapidly decorrelating liquid dynamics to a dynamically stabilized state with increased tetrahedral ordering under sufficiently strong driving.</p> <p>This work provides a physically motivated framework for controlling the dynamics and topology of dipolar liquids through non-equilibrium parametric forcing.</p>
title Parametric Phase-Locking of Hydrogen-Bond Networks: High-Frequency Floquet Dressing of Liquid Water Topology
topic liquid water
hydrogen bonding
dipolar interactions
Floquet theory
nonlinear dynamics
statistical physics
parametric stabilization
orientational dynamics
complex systems
non-equilibrium systems
url https://doi.org/10.5281/zenodo.19204400