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Main Author: Çelik, Necati
Format: Preprint
Published: 2025
Subjects:
Online Access:https://arxiv.org/abs/2511.22407
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author Çelik, Necati
author_facet Çelik, Necati
contents We propose a quantum-enhanced picostrain sensor that achieves Heisenberg-limited strain sensing using superconducting qubits. A strain-sensitive qubit s Hamiltonian is coupled to the momentum quadrature of a microwave resonator, transducing mechanical strain $ε$ into amplified spatial displacements of the resonator s phase space. Using homodyne detection of the resonator field and multipartite entanglement of N qubits, the protocol achieves a strain sensitivity $Δε\sim pε$ (picostrain), two orders of magnitude better than classical sensors. The scheme integrates natively with superconducting processors, enabling in-situ diagnostic and nanoscale material characterization.
format Preprint
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institution arXiv
publishDate 2025
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spellingShingle Quantum-Enhanced Picostrain Sensing with Superconducting Qubits
Çelik, Necati
Quantum Physics
We propose a quantum-enhanced picostrain sensor that achieves Heisenberg-limited strain sensing using superconducting qubits. A strain-sensitive qubit s Hamiltonian is coupled to the momentum quadrature of a microwave resonator, transducing mechanical strain $ε$ into amplified spatial displacements of the resonator s phase space. Using homodyne detection of the resonator field and multipartite entanglement of N qubits, the protocol achieves a strain sensitivity $Δε\sim pε$ (picostrain), two orders of magnitude better than classical sensors. The scheme integrates natively with superconducting processors, enabling in-situ diagnostic and nanoscale material characterization.
title Quantum-Enhanced Picostrain Sensing with Superconducting Qubits
topic Quantum Physics
url https://arxiv.org/abs/2511.22407