A method for the extraction of nonlinear X-Parameters from finite-difference time-domain
simulation results is described. Simulations are carried out on a domain comprising a diode …

This chapter summarizes a number of approaches within the literature for incorporating
semiconductor devices, diodes, and transistors, into the finite‐difference time‐domain …

The finite-difference time-domain (FDTD) method enables time-domain simulation of 3D
electromagnetic fields within microwave devices. It is extended by lumped element (LE …

This work explores analyzing the non-quasistatic effects of a microwave circuit by employing
a physical model-based field-circuit co-simulation method. Specifically, it uses the …

Many modern radio-frequency devices comprise both lumped-element components and
complex geometries. Simulation of such a device requires modeling the electromagnetic …

Computer simulation of electromagnetic behavior is a key step in the design cycle of many
electronic devices, including microwave communications components and high-speed …

A new formulation for the finite-difference time-domain (FDTD) technique is presented, for
nonlinear circuit components provided that their X-Parameter representations are known …

Nonlinear circuits are a key component in RF transceivers. Efficiency and power
requirements for 5G communication are creating new challenges in simulation and …