A microscopic theory and experiments unify conventional structural chirality with synthetic chirality from traveling-wave phase accumulation to explain magnetic nonreciprocity.
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A theoretical optomagnonic-Laguerre-Gaussian rotational system enables tunable bidirectional slow-to-fast light conversion via magnon and rotation degrees of freedom, shown through numerical simulations of Fano resonances and group delay.
Theoretical prediction of ultrastrong magnon-photon hybridization (~100 GHz coupling) in SC/AFM/SC heterostructures at THz, field-tunable between single and dual modes, with superconductor-modulated group velocity.
External driving of the magnonic part in a weakly hybridized magnon-photon system enables tunable quantum heat rectification across the full physical range.
citing papers explorer
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Theory and Experiment of Chirality-induced Magnetic Nonreciprocity Manifested by Coupling Phase
A microscopic theory and experiments unify conventional structural chirality with synthetic chirality from traveling-wave phase accumulation to explain magnetic nonreciprocity.
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Tunable Rotation-Associated Slow-to-Fast Light Conversion via Optomagnonic Coupling
A theoretical optomagnonic-Laguerre-Gaussian rotational system enables tunable bidirectional slow-to-fast light conversion via magnon and rotation degrees of freedom, shown through numerical simulations of Fano resonances and group delay.
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Ultrastrong magnon-photon coupling in superconductor/antiferromagnet/superconductor heterostructures at terahertz frequencies
Theoretical prediction of ultrastrong magnon-photon hybridization (~100 GHz coupling) in SC/AFM/SC heterostructures at THz, field-tunable between single and dual modes, with superconductor-modulated group velocity.
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Driven Magnon-Photon System as a Tunable Quantum Heat Rectifier
External driving of the magnonic part in a weakly hybridized magnon-photon system enables tunable quantum heat rectification across the full physical range.