摘要: We carried out numerical simulations on multilayer plasmon excitations by resonant energy transfer. A formal derivation of the transfer rate from the plasmons to the Wannier excitons was performed. We stimulated fluorescence and c... 展开 We carried out numerical simulations on multilayer plasmon excitations by resonant energy transfer. A formal derivation of the transfer rate from the plasmons to the Wannier excitons was performed. We stimulated fluorescence and compared our results with the conventional organic/inorganic hybrid organic light-emitting diode (OLEDs). We formulated electron energy loss spectroscopy (EELS) for multilayer epitaxial grapheme. Our derivation of the general angles-resolved EELS spectra for transmission and reflection is based on the prescribed electron trajectory. In particular, we were interested in application of the theory to various multi-layer electron gas (MLEG) configurations, i.e., epitaxial vs. exfoliated graphene. We did a comparison with the available experimental data to see the effect of the gap between the valence and conduction bands. 收起