2022
DOI: 10.1039/d1nr06307c
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Directional effects in plasmon excitation and transition radiation from an anisotropic 2D material induced by a fast charged particle

Abstract: We present a relativistic formulation of the energy loss of a charged particle traversing an anisotropic layer under arbitrary angle of incidence. We use a model for the conductivity tensor...

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Cited by 3 publications
(1 citation statement)
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References 81 publications
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“…
I shall review some of our recent work on theoretical modelling of the interaction of a charged particle with mono-layer black phosphorus, called phosphorene, which is well known for its strong in-plane optical and electronic anisotropy [1]. First, using a relativistic formulation of the problem, I shall show that the angular patterns in the transition radiation emitted from doped phosphorene, triggered by a traversal of a fast electron in a Transmission Electron Microscope (TEM), can be related to the in-plane conductivity tensor of this material in the frequency range from the terahertz to the mid-infrared (THz-MIR) [2]. This can be used to probe the dispersion of the so-called hyperbolic plasmon polariton modes in doped phosphorene at such low frequencies, which are still not accessible via energy loss measurements in TEM [3].
…”
mentioning
confidence: 99%
“…
I shall review some of our recent work on theoretical modelling of the interaction of a charged particle with mono-layer black phosphorus, called phosphorene, which is well known for its strong in-plane optical and electronic anisotropy [1]. First, using a relativistic formulation of the problem, I shall show that the angular patterns in the transition radiation emitted from doped phosphorene, triggered by a traversal of a fast electron in a Transmission Electron Microscope (TEM), can be related to the in-plane conductivity tensor of this material in the frequency range from the terahertz to the mid-infrared (THz-MIR) [2]. This can be used to probe the dispersion of the so-called hyperbolic plasmon polariton modes in doped phosphorene at such low frequencies, which are still not accessible via energy loss measurements in TEM [3].
…”
mentioning
confidence: 99%