This paper investigates an improved empirical model predicting the propagation characteristics of coplanar waveguides (CPW) at G band based on a conventional analytical CPW model. A comparison with another quasi-analytic CPW model and fullwave em simulations is presented. The comparison results demonstrate that the improved CPW model shows excellent agreement with measurements on different substrate materials up to 220 GHz. This means that, for the first time, a comprehensive and efficient CPW description at higher frequency ranges up to G band is available. This improved CPW model can be applied and used during the design cycle of hybrid integrated circuits (ICs), monolithic microwave integrated circuits (MMICs) and printed circuits board ...
We report on the measured mmwave (67-110GHz) performance of Coplanar Waveguide components on GaAs su...
We report on the measured mmwave (67-110GHz) performance of Coplanar Waveguide components on GaAs su...
International audienceIn this paper, a parametric predictive electrical model of the slow-wave copla...
A theoretical model is derived which predicts the critical frequency above which coupling between Co...
Theoretical and experimental data for the characterization and design of coplanar lines for millimet...
Coplanar waveguide (CPW) has been finding wide applications in microwave integrated circuit (MIC) an...
In this paper, we describe the measurement and modeling of coplanar waveguide (CPW) transmission lin...
Using three dimensional (3-D) electromagnetic (EM) field simulations, a fully scalable grounded copl...
International audienceIn this paper, a predictive electrical model of the slow-wave coplanar wavegui...
The behaviour of grounded coplanar waveguide (GCPW) structures in the upper millimeter-wave range is...
International audienceThis paper focuses on the design of high-performance Coupled Slow-wave CoPlana...
We report on the measured mmwave (67-110GHz) performance of Coplanar Waveguide components on GaAs su...
We report on the measured mmwave (67-110GHz) performance of Coplanar Waveguide components on GaAs su...
International audienceIn this paper, a parametric predictive electrical model of the slow-wave copla...
A theoretical model is derived which predicts the critical frequency above which coupling between Co...
Theoretical and experimental data for the characterization and design of coplanar lines for millimet...
Coplanar waveguide (CPW) has been finding wide applications in microwave integrated circuit (MIC) an...
In this paper, we describe the measurement and modeling of coplanar waveguide (CPW) transmission lin...
Using three dimensional (3-D) electromagnetic (EM) field simulations, a fully scalable grounded copl...
International audienceIn this paper, a predictive electrical model of the slow-wave coplanar wavegui...
The behaviour of grounded coplanar waveguide (GCPW) structures in the upper millimeter-wave range is...
International audienceThis paper focuses on the design of high-performance Coupled Slow-wave CoPlana...
We report on the measured mmwave (67-110GHz) performance of Coplanar Waveguide components on GaAs su...
We report on the measured mmwave (67-110GHz) performance of Coplanar Waveguide components on GaAs su...
International audienceIn this paper, a parametric predictive electrical model of the slow-wave copla...