Fulvio Schettino

Prof. Fulvio Schettino

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Research Focus & Metrics

Academic Career Length

29Years (1998-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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29 May 2020 in IEEE Access
Verified
Journal Article
Open access
SASara Adda
Sara Adda
TATommaso Aureli
Tommaso Aureli
SDStefano D'Elia
Stefano D'Elia
Daniele FranciDaniele Franci
Daniele Franci
EGEnrico Grillo
Enrico Grillo
RSRiccardo Suman
Riccardo Suman
This paper presents some theoretical considerations and experimental results regarding the problem of maximum power extrapolation for the assessment of the exposure to electromagnetic fields radiated by 5G base stations. In particular the results of an extensive experimental campaign using an extrapolation procedure recently proposed for 5G signal is discussed and experimentally checked on a SU-MIMO signal. The results confirm the effectiveness of the extrapolation technique. Starting from an analysis (that represents a further novel contribution of this paper) on the impact of Spatial Division Multiple Access techniques used in 5G on the measurement of EMF level, some indications of possible extension of the technique to the highly complex MU-MIMO case are also given.

30 October 2017 in IEEE Transactions on Antennas and Propagation
Verified
Journal Article
Closed access
Daniele PincheraDaniele Pinchera
Daniele Pinchera
Marco Donald MiglioreMarco Donald Migliore
Marco Donald Migliore
FSFulvio Schettino
Fulvio Schettino
Mario LucidoMario Lucido
Mario Lucido
GPGaetano Panariello
Gaetano Panariello
Aim of this paper is to discuss a novel technique for sparse array synthesis. The synthesis strategy is based on a sparse-forcing algorithm using an improvement of the reweighted ℓ1 minimization proposed in the framework of the compressed-sensing literature, specifically modified in order to tailor both linear and conformal array synthesis problems. The numerical examples show that the proposed algorithm improves the results provided by concurrent techniques, reducing the number of radiating elements and/or the computational effort.

13 November 2006 in IEEE Transactions on Antennas and Propagation
Verified
Journal Article
Closed access
MIMigliore
Migliore
Daniele PincheraDaniele Pinchera
Daniele Pinchera
FSFulvio Schettino
Fulvio Schettino
Marco Donald MiglioreMarco Donald Migliore
Marco Donald Migliore
A novel type of multiple-input multiple-output (MIMO) antenna employing parasitic elements is presented. A proper model for the parasitic-MIMO system is first discussed and then numerically and experimentally investigated. The results show that the proposed solution can significantly improve the performance of the communication system with a minimum impact on the complexity and cost of the overall system


10 August 2017 in Electronics
Verified
Journal Article
Open access
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Daniele PincheraDaniele Pinchera
Daniele Pinchera
Marco Donald MiglioreMarco Donald Migliore
Marco Donald Migliore
FSFulvio Schettino
Fulvio Schettino
GPGaetano Panariello
Gaetano Panariello
The aim of this paper is to analyze the array synthesis for 5 G massive MIMO systems in the line-of-sight working condition. The main result of the numerical investigation performed is that non-uniform arrays are the natural choice in this kind of application. In particular, by using non-equispaced arrays, we show that it is possible to achieve a better average condition number of the channel matrix and a significantly higher spectral efficiency. Furthermore, we verify that increasing the array size is beneficial also for circular arrays, and we provide some useful rules-of-thumb for antenna array design for massive MIMO applications. These results are in contrast to the widely-accepted idea in the 5 G massive MIMO literature, in which the half-wavelength linear uniform array is universally adopted.

3 October 2005 in IEEE Transactions on Antennas and Propagation
Verified
Journal Article
Closed access
Marco Donald MiglioreMarco Donald Migliore
Marco Donald Migliore
Daniele PincheraDaniele Pinchera
Daniele Pinchera
FSFulvio Schettino
Fulvio Schettino
A novel Uda-Yagi adaptive antenna is numerically and experimentally investigated. The antenna consists of an active element and a relatively large number of parasitic elements closed on two different loads selectable by simple electronic switches. The use of fuzzy-logic based cost function and self-adaptive biological beamforming algorithms allows to obtain quite good performances both in terms of signal to interference plus noise ratio and voltage standing wave ratio. The antenna is simple, low cost, and is robust with respect to mechanical and electrical tolerances and with respect to failures of some passive elements. Experimental results on two different prototypes confirm the good performances of the proposed antenna.