Highly integrated antennas and front-ends for 60 GHz WLAN applications

Martinez-Vazquez, M.; Oikonomopoulos-Zachos, Christos; Maulwurf, Kai; Wollenschläger, Frank; Stephan, Ralf; Hein, Matthias; Xia, Liangping; Müller, Jens; Estan, Carlos; Dombrowski, K. F.; Brankovic, V.; Radovic, D.

doi:10.1017/s1759078711000298

Cited by 4 publications

(1 citation statement)

References 11 publications

(15 reference statements)

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“…Other antennas, designed on low-temperature co-fired ceramics (LTCC) have been included in the analysis of shadowing by human bodies (SHB). These are a 2×2 patch array (PATCH) with 8.2 dBi and 36° HPBW ( E -plane) [6], and a 2×1 cavity array (CAV) with 8.6 dBi and 62° HPBW ( E -plane) [7]. A commercial omnidirectional (OMNI) antenna (in H -plane) with 0.7 dBi with 102° HPBW ( E -plane) has been included in Fig.…”

Section: Vhr-e Scenariomentioning

confidence: 99%

60 GHz short-range communications: channel measurements, analysis, and modeling

Ariza

Trautwein²,

Müller

et al. 2011

Int. j. microw. wirel. technol.

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This article presents measurement and analysis results for 60 GHz short-range wideband radio channels. We consider two scenarios, referred to as “very-high-rate extended-range” (VHR-E) and “ultra-high-rate cordless” (UHR-C). The VHR-E measurements aimed at 60 GHz fixed networks for an Airbus A340 cabin both under static and dynamic (shadowing due to passenger movement) channel conditions. We describe the channel sounder used for the VHR-E measurements and present a simple multipath model derived from the measurements. Furthermore, simulations show the feasibility of the ray-tracing approach for this kind of channel. As a typical UHR-C use case, a data kiosk scenario was investigated. Various propagation conditions are analyzed with respect to channel gain, time dispersion, and frequency selectivity.

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Section: Vhr-e Scenariomentioning

confidence: 99%