Levitated nanomechanical oscillator senses 10 zeptonewton forces below quantum zero-point fluctuation by preparing a squeezed state through potential modulation and detecting force via time-of-flight displacement.
Title resolution pending
4 Pith papers cite this work. Polarity classification is still indexing.
4
Pith papers citing it
citation-role summary
background 1
citation-polarity summary
years
2026 4verdicts
UNVERDICTED 4roles
background 1polarities
background 1representative citing papers
Optomechanically levitated nanoparticles resolve individual gas collisions from Kr, Xe, and SF6, matching theory and reaching 200 keV/c impulse sensitivity for precision metrology.
A levitated nanoparticle platform achieves unidirectional inter-axial coupling via non-Hermitian dynamics, resulting in spontaneous cooling of one mechanical mode.
A rotating all-optical saddle trap for levitated nanoparticles enables reduced decoherence, large motional delocalization, and zepto-Newton force detection in mesoscopic quantum experiments.
citing papers explorer
-
Time-of-flight force sensing below the quantum zero-point fluctuation
Levitated nanomechanical oscillator senses 10 zeptonewton forces below quantum zero-point fluctuation by preparing a squeezed state through potential modulation and detecting force via time-of-flight displacement.
-
Optomechanical Detection of Individual Gas Collisions
Optomechanically levitated nanoparticles resolve individual gas collisions from Kr, Xe, and SF6, matching theory and reaching 200 keV/c impulse sensitivity for precision metrology.
-
Unidirectional Inter-Axial Coupling and Spontaneous Cooling in a~Non-Hermitian Dynamics of a~Levitated Particle
A levitated nanoparticle platform achieves unidirectional inter-axial coupling via non-Hermitian dynamics, resulting in spontaneous cooling of one mechanical mode.
-
All-optical saddle trap as a platform for mesoscopic quantum experiments
A rotating all-optical saddle trap for levitated nanoparticles enables reduced decoherence, large motional delocalization, and zepto-Newton force detection in mesoscopic quantum experiments.