Latest from Components

Dreamstime_kiyoshihijiki_180331688
wireless_dreamstime_kiyoshihijiki_180331688
Tony Vitolo | Endeavor Business Media
MW_products_promo1920x1080yellow
Dreamstime_irinayeryomina_321205236
radar_dreamstime_irinayeryomina_321205236
Phuttaphattipsana_dreamstime_l_170731895
smartcity_phuttaphattipsana_dreamstime_l_170731895
PROMO_30A_Fig3b.png

Analysis of a 24- to 30-GHz Phased Array for 5G Applications (Part 2) (.PDF Download)

Dec. 5, 2019
Analysis of a 24- to 30-GHz Phased Array for 5G Applications (Part 2) (.PDF Download)

Here, we’ll begin by exploring full-wave simulation of the 5-×-16 array shown in Figure 1 of Part 1. The last resort is a numerical simulation of the entire array using commercial 3D full-wave software, such as CST Microwave Studio (MWS), ANSYS HFSS, COMSOL Multiphysics, EMPIRE XPU, etc. All data can also be obtained via testing inside the antenna range. Thus, we can generate an embedded database of 3D patterns and scattering (S) or impedance (Z/Y) matrices for each element in the array.

This approach leads to an outcome with a massive database (see footnote 1 from Part 1) and assumes access to high-performance computers. It’s desirable to implement parallel processing, as well as GPU and cache accelerating.6 All of the numerical simulation data that follows was obtained using CST MWS.

Related

Software

COMSOL

Nov. 24, 2000