Magnetic barriers on monolayer WSe2 produce spin- and valley-dependent oscillatory Goos-Hänchen shifts and group delay times that can be tuned by field, energy, angle, and barrier width.
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Derives exact solutions for Dirac fermions in magnetically confined WSe2 quantum dots using hypergeometric and Bessel functions, demonstrating carrier localization and resonance peaks.
Laser driving of a WSe2 electrostatic barrier generates Floquet sidebands that suppress Dirac fermion transmission and overcome Klein tunneling.
Transmission in gapped graphene under combined strain and laser-electrostatic barriers shows Fano-type oscillations that strengthen at moderate strain, shift with incidence energy, and respond differently to laser amplitude versus frequency.
citing papers explorer
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Magnetic control of Goos-H\"anchen shifts and group delay time in monolayer WSe$_2$
Magnetic barriers on monolayer WSe2 produce spin- and valley-dependent oscillatory Goos-Hänchen shifts and group delay times that can be tuned by field, energy, angle, and barrier width.
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Confinement in a magnetically induced WSe$_2$ quantum dots
Derives exact solutions for Dirac fermions in magnetically confined WSe2 quantum dots using hypergeometric and Bessel functions, demonstrating carrier localization and resonance peaks.
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Laser-assisted tunneling in a static tungsten diselenide WSe$_2$ barrier
Laser driving of a WSe2 electrostatic barrier generates Floquet sidebands that suppress Dirac fermion transmission and overcome Klein tunneling.
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Quantum transport in gapped graphene under strain and laser--electrostatic barriers
Transmission in gapped graphene under combined strain and laser-electrostatic barriers shows Fano-type oscillations that strengthen at moderate strain, shift with incidence energy, and respond differently to laser amplitude versus frequency.