Entanglement-Enhanced Quantum Nano-Vibrometry

Fuente: arXiv
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Auteurs principaux: Lualdi, Colin P., Rapp, Joshua, Johnson, Spencer J., Vayninger, Michael, Kwiat, Paul G.
Format: Preprint
Publié: 2025
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author Lualdi, Colin P.
Rapp, Joshua
Johnson, Spencer J.
Vayninger, Michael
Kwiat, Paul G.
author_facet Lualdi, Colin P.
Rapp, Joshua
Johnson, Spencer J.
Vayninger, Michael
Kwiat, Paul G.
contents The study of dynamic systems at the nanometer scale can benefit from the loss and background resilience offered by quantum two-photon interference. However, fast measurements with the required resolution are difficult to realize. As a solution, we introduce extreme energy entanglement between the photons undergoing interference. Using a flux probing analysis technique, we recover vibrational signals with frequencies as high as 21 kHz. Along with validating nanometer-scale precision and accuracy, we observe a significant quantum advantage when measuring in the presence of loss and background.
format Preprint
id arxiv_https___arxiv_org_abs_2512_05961
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Entanglement-Enhanced Quantum Nano-Vibrometry
Lualdi, Colin P.
Rapp, Joshua
Johnson, Spencer J.
Vayninger, Michael
Kwiat, Paul G.
Quantum Physics
The study of dynamic systems at the nanometer scale can benefit from the loss and background resilience offered by quantum two-photon interference. However, fast measurements with the required resolution are difficult to realize. As a solution, we introduce extreme energy entanglement between the photons undergoing interference. Using a flux probing analysis technique, we recover vibrational signals with frequencies as high as 21 kHz. Along with validating nanometer-scale precision and accuracy, we observe a significant quantum advantage when measuring in the presence of loss and background.
title Entanglement-Enhanced Quantum Nano-Vibrometry
topic Quantum Physics
url https://arxiv.org/abs/2512.05961