A hybrid magnonic optomechanical cavity with an internal OPA achieves full suppression of radiation-pressure back-action via coherent quantum noise cancellation and operates beyond the standard quantum limit at reduced pump power.
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4 Pith papers cite this work. Polarity classification is still indexing.
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Vector vortices in phaseonium map OAM to atomic coherence, inducing spin-orbit coupling and polarization changes via feedback anisotropy.
Rydberg EIT spectroscopy with linearly polarized RF fields identifies two angular momentum ladder types with opposite central EIT peak behavior, challenging SI-traceable electrometer assumptions.
In a coherently prepared tripod atomic medium, slow-light vector vortices with opposite OAM charges map orbital angular momentum to the atoms, exhibit tunable periodic polarization evolution, and transform intensity from ring to petal structures under control-field influence.
citing papers explorer
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Quantum Noise Suppression Beyond the Standard Quantum Limit in a Hybrid Magnonic Optomechanical System
A hybrid magnonic optomechanical cavity with an internal OPA achieves full suppression of radiation-pressure back-action via coherent quantum noise cancellation and operates beyond the standard quantum limit at reduced pump power.
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Spin-orbit coupling of optical vector vortices in coherently prepared media
Vector vortices in phaseonium map OAM to atomic coherence, inducing spin-orbit coupling and polarization changes via feedback anisotropy.
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EIT Spectroscopy of Rydberg Levels Dressed by Linearly Polarized RF fields: Complementary Angular Response for Two Types of Transition Ladders
Rydberg EIT spectroscopy with linearly polarized RF fields identifies two angular momentum ladder types with opposite central EIT peak behavior, challenging SI-traceable electrometer assumptions.
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Propagation of optical vector vortices of slow light in a coherently prepared tripod configuration
In a coherently prepared tripod atomic medium, slow-light vector vortices with opposite OAM charges map orbital angular momentum to the atoms, exhibit tunable periodic polarization evolution, and transform intensity from ring to petal structures under control-field influence.