The design of microwave monolithic integrated circuits (MMICs) requires the exact full-wave modelling of the electromagnetic field in the semiconductor and insulator regions as well as within the conductor layers. The transverse dimensions of the transmission structures in modern MMICs at frequencies above 10 GHz are comparable to the skin depth. Therefore, an accurate simulation of the electromagnetic field inside the conductors is necessary. The usage of conventional simulation tools is not always efficient. In this paper for full-wave analysis of transmission lines and discontinuities realized in damascene technology we propose the effective hybrid TLM-MM approach.     «

The design of microwave monolithic integrated circuits (MMICs) requires the exact full-wave modelling of the electromagnetic field in the semiconductor and insulator regions as well as within the conductor layers. The transverse dimensions of the transmission structures in modern MMICs at frequencies above 10 GHz are comparable to the skin depth. Therefore, an accurate simulation of the electromagnetic field inside the conductors is necessary. The usage of conventional simulation tools is not al...     »

MMIC, electromagnetic field theory, transmission line matrix methods, computational electromagnetics, coplanar waveguides, mode matching, S-parameters, electromagnetic field, waveguide discontinuities, waveguide theory, discontinuities, time-frequency analysis, skin effect, transmission line matrix method, damascene technology, exact full-wave modelling, homogeneous coplanar waveguide structures, hybrid time-frequency technique, hybrid TLM-MM approach, MMIC design, mode matching method, planar circuit design, skin depth, transmission structures     «

MMIC, electromagnetic field theory, transmission line matrix methods, computational electromagnetics, coplanar waveguides, mode matching, S-parameters, electromagnetic field, waveguide discontinuities, waveguide theory, discontinuities, time-frequency analysis, skin effect, transmission line matrix method, damascene technology, exact full-wave modelling, homogeneous coplanar waveguide structures, hybrid time-frequency technique, hybrid TLM-MM approach, MMIC design, mode matching method, planar c...     »