Linear and nonlinear optical propagation in 2D materials

Abstract

Recently, a lot of eff ort has been dedicated to developing next-generation optoelectronic devices based on twodimensional materials, thanks to their unique optical properties that are signifi cantly diff erent from those of their bulk counterparts. In order to implement high-performance nanoscale optical devices, an in-depth study of how linear and nonlinear propagation occurs in two-dimensional materials is required. We focus here on the theory behind the propagation of electromagnetic waves in two-dimensional materials, as well as emerging applications in the fi elds of electronics, optics, and sensors that are summarized and discussed in the paper.

Feasibility Analysis of Theranostic Magnetic Scaffolds for Microwave Monitoring of Hyperthermia Treatment of Bone Tumors

“…The system shown in Fig. 1b is analyzed by using the waveamplitude transmission matrix (WATM) method [54], [72], [77], [78]. By knowing the amplitude of the propagating and reflected electric field along the x-axis at the first layer, E…”

Feasibility Analysis of Theranostic Magnetic Scaffolds for Microwave Monitoring of Hyperthermia Treatment of Bone Tumors

“…The system shown in Fig. 1(b) is analyzed by using the waveamplitude transmission matrix (WATM) method [54], [72], [77], [78]. By knowing the amplitude of the propagating and reflected electric field along the x-axis at the first layer, E (1) x+ and E (1) x− , respectively, the multilayered structure can be fully described by…”