Magnon-rotation enhanced nonreciprocity of multipartite entanglement in a magnomechanical system

Fuente: arXiv
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Main Authors: Harraf, Hamza, Chabar, Noura, Amazioug, Mohamed, Laamara, Rachid Ahl, Mazaheri, Mojtaba
Format: Preprint
Published: 2025
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_version_ 1866917007082913792
author Harraf, Hamza
Chabar, Noura
Amazioug, Mohamed
Laamara, Rachid Ahl
Mazaheri, Mojtaba
author_facet Harraf, Hamza
Chabar, Noura
Amazioug, Mohamed
Laamara, Rachid Ahl
Mazaheri, Mojtaba
contents Nonreciprocal physics is attracting significant interest in quantum information processing. In this work, we propose a scheme to investigate the nonreciprocity of bi- and tripartite entanglement and generate squeezed states in a magnomechanical system. This is achieved through the Barnett effect, which originates from the rotation of the first magnon mode. The system consists of two YIG spheres, each supporting a magnon mode that represents collective spin motion, positioned inside a microwave cavity (MC). We show that the Barnett effect enhances entanglement under thermal effects and generates squeezed states for the two magnon modes and the photon mode. Moreover, we show that magnon-magnon coupling enhances entanglement between different two modes.
format Preprint
id arxiv_https___arxiv_org_abs_2510_10839
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Magnon-rotation enhanced nonreciprocity of multipartite entanglement in a magnomechanical system
Harraf, Hamza
Chabar, Noura
Amazioug, Mohamed
Laamara, Rachid Ahl
Mazaheri, Mojtaba
Quantum Physics
Nonreciprocal physics is attracting significant interest in quantum information processing. In this work, we propose a scheme to investigate the nonreciprocity of bi- and tripartite entanglement and generate squeezed states in a magnomechanical system. This is achieved through the Barnett effect, which originates from the rotation of the first magnon mode. The system consists of two YIG spheres, each supporting a magnon mode that represents collective spin motion, positioned inside a microwave cavity (MC). We show that the Barnett effect enhances entanglement under thermal effects and generates squeezed states for the two magnon modes and the photon mode. Moreover, we show that magnon-magnon coupling enhances entanglement between different two modes.
title Magnon-rotation enhanced nonreciprocity of multipartite entanglement in a magnomechanical system
topic Quantum Physics
url https://arxiv.org/abs/2510.10839