The accuracy of an Eigenmode analysis for
characterizing the propagation and attenuation
behavior of periodic structures
has been theoretically verified in [1] and
[2]. When combined with full-wave simulation,
one can further completely and efficiently
solve periodic multimode structures and devices. In
this work, a set of virtual experiments is conducted
to highlight the efficiency and versatility of both
solvers in characterizing a set of basic microwave
devices. This was demonstrated during the IMS2012
Student Design Competition. On the other hand, the
quest to bridge the gap between optical and microwave
frequencies has resulted in an unprecedented
growth in millimeter-wave frequencies applications.
This growth is paralleled by an increase in the complexity of circuit design, owed in part to the
miniaturization and high-density integration that is
typical of millimeter-wave frequency circuits. This
complexity necessitates the concurrent use of diverse
modeling and simulation techniques to enhance the
accuracy of circuit characterization.