Exploiting Fabry-Perot and symmetry-protected BICs in multilayered time-varying metasurfaces enables polarization-insensitive scattering anomalies and monochromatic nonreciprocal transmission at perturbative modulation amplitudes.
Observation of genuine wave vector (k or β) gap in a dynamic transmission line and temporal photonic crystals
4 Pith papers cite this work, alongside 122 external citations. Polarity classification is still indexing.
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Spatial nonlocality in Lorentz-dispersive media enables infinite-extent momentum bandgaps in photonic time crystals at arbitrarily low modulation speed and strength.
Time-domain Stokes phenomenon unifies temporal-boundary scattering and k-gap amplification in photonic time crystals, producing Kerr-stabilized soliton pairs whose entanglement is testable via HBT and HOM measurements.
Demonstrates 2D topological phases and propagating edge states in space-time photonic crystals, including an exponentially growing edge state along the space-time interface.
citing papers explorer
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Bound states in the continuum in multilayered time-varying metasurfaces
Exploiting Fabry-Perot and symmetry-protected BICs in multilayered time-varying metasurfaces enables polarization-insensitive scattering anomalies and monochromatic nonreciprocal transmission at perturbative modulation amplitudes.
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Nonlocal photonic time crystals: Infinite momentum bandgaps with minimal modulation speed and strength
Spatial nonlocality in Lorentz-dispersive media enables infinite-extent momentum bandgaps in photonic time crystals at arbitrarily low modulation speed and strength.
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Time domain Stokes mechanism of pair correlated k gap solitons in nonlinear photonic time crystal slabs
Time-domain Stokes phenomenon unifies temporal-boundary scattering and k-gap amplification in photonic time crystals, producing Kerr-stabilized soliton pairs whose entanglement is testable via HBT and HOM measurements.
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2D Topological Edge States in Periodic Space-Time Interfaces
Demonstrates 2D topological phases and propagating edge states in space-time photonic crystals, including an exponentially growing edge state along the space-time interface.