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Emergent Bell Phase in an Electro-Nanomechanical Quantum Simulator
arXiv
Authors: David Ullrich, Marta Cagetti, Stefan Forstner, Adrian Bachtold, Anna Sanpera
Year
2025
Paper ID
17650
Status
Preprint
Abstract Read
~2 min
Abstract Words
102
Citations
N/A
Abstract
Suspended carbon nanotubes hosting electrostatically defined quantum dots allow for exceptionally strong and tunable electromechanical coupling as well as mechanical modes that can reach the quantum ground state of motion simply by cryogenic cooling. This makes them a unique platform for quantum simulation of electron-phonon coupling. Here, we propose an experimentally realisable setup with two such carbon nanotubes in parallel, each hosting four quantum dots. Our system not only exhibits phonon-mediated electron-electron attraction, but also supports a robust, maximally entangled Bell phase at mesoscopic scales shared across the subsystems. These features highlight its potential as a simulator of strongly correlated quantum systems.
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- Suspended carbon nanotubes hosting electrostatically defined quantum dots allow for exceptionally strong and tunable electromechanical coupling as well as mechanical modes that...
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