GET THE APP

Substrate Integration Waveguide (SIW) antenna and passive front-end design considerations for the 5G transceiver
..

International Journal of Sensor Networks and Data Communications

ISSN: 2090-4886

Open Access

Substrate Integration Waveguide (SIW) antenna and passive front-end design considerations for the 5G transceiver


2nd International Conference and Business Expo on Wireless & Telecommunication

April 21-22, 2016 Dubai, UAE

Konstantinos N Voudouris

Technological Educational Institute of Athens, Greece

Scientific Tracks Abstracts: Sensor Netw Data Commun

Abstract :

Undoubtedly, 5G equipment will need versatile antennas, covering both back hauling functions as well as access. One of the candidate technologies for serving the future 5G multi-band/multi-mode terminals is the Substrate Integrated Waveguide (SIW) one. This work focuses on presenting recent research on application of Substrate Integration Waveguide technology in designing of antenna array for 5G frond-end passive circuits. In particular, the work is concentrated to the ISM 60GHz band. This particular band is very attractive for frequency reuse networks, providing high-speed and secure wireless communications, due to high oxygen absorption. Further to the SIW design procedure presentation, measured versus simulated results will be presented regarding both the antenna array and the passive front-end comprised by the diplexer and the band pass filters for up and down link operations. All design simulations were performed by using Ansof HFSS v.14. The dielectric substrate chosen for all designs is Rogers RT/duroid 5880 with �µr=2.2, tan�´=0.0009 and thickness h=0.508 mm. The return loss varies below -12dB in the whole 60 GHz band, covering a useful bandwidth of nearly 5GHz, while the gain is 21.6dBi and half-power beamwidth is 15.5o and 10.7o in azimuth and elevation planes respectively. The SIW planar diplexer, the bandpass filters and the antenna array are integrated in a common substrate, providing thus a fully integrated SIW millimeter-wave front-end suitable for the new 5G services. Channel to channel isolation varies below 60dB, while the return loss is less than -12dB across the band. In conclusion, SIW design is an attractive candidate technology for the future 5G terminals.

Biography :

Konstantinos N Voudouris, PhD (Bradford), Dipl. Ing. (Patras), is Professor of Wireless Communication Systems at the Department of Electronics Engineering of the Technological Institute (TEI) of Athens, Greece, and heads the Wireless Communications & e-Applications Research (WiCEAR) Group. Before, he worked in UK, Cyprus, Greece, and Belgium as a telecoms expert. He coordinated the FP7 ICT REWIND project, focusing on the development of a Relay Station prototype for IEEE 802.16j WiMAX networks. He scientifically leads the WiCEAR group, in NexGenMiliwave project (development of a 60GHz transceiver) within the concept of Corallia Cluster. He has published over 80 scientific papers in international journals and conferences, attracting over 120 citations.

Email: kvoudouris@hct.ac.ae

Google Scholar citation report
Citations: 343

International Journal of Sensor Networks and Data Communications received 343 citations as per Google Scholar report

International Journal of Sensor Networks and Data Communications peer review process verified at publons

Indexed In

 
arrow_upward arrow_upward