Danilo Nicola Dongiovanni

Dr. Danilo Nicola Dongiovanni

orcid

Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

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

Representative Publications

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1 September 2019 in Fusion Engineering and Design
Verified
Journal Article
Closed access
FGFrancisco A. Hernández González
Francisco A. Hernández González
PPPavel Pereslavtsev
Pavel Pereslavtsev
GZGuangming Zhou
Guangming Zhou
HNHeiko Neuberger
Heiko Neuberger
JRJorg Rey
Jorg Rey
DDDanilo Nicola Dongiovanni
Danilo Nicola Dongiovanni

1 August 2020 in Fusion Engineering and Design
Verified
Journal Article
Closed access
GMGiuseppe Mazzone
Giuseppe Mazzone
JYJeong-Ha You
Jeong-Ha You
CBChristian Bachmann
Christian Bachmann
UBUgo Bonavolontà
Ugo Bonavolontà
VCValerio Cerri
Valerio Cerri
CVChristian Vorpahl
Christian Vorpahl

4 October 2024 in Fusion Engineering and Design
Verified
Journal Article
Closed access
CBCHIARA BUSTREO
CHIARA BUSTREO
NAN. Ben Ayed
N. Ben Ayed
MBM. Biberacher
M. Biberacher
GBGaetano Bongiovi
Gaetano Bongiovi
EBE. Börcsök
E. Börcsök
SWS.H. Ward
S.H. Ward

1 December 2020 in Fusion Engineering and Design
Verified
Journal Article
Closed access
TPTonio Pinna
Tonio Pinna
DDDanilo Nicola Dongiovanni
Danilo Nicola Dongiovanni

1 September 2019 in Fusion Engineering and Design
Verified
Journal Article
Closed access
TPTonio Pinna
Tonio Pinna
DDDanilo Nicola Dongiovanni
Danilo Nicola Dongiovanni
SCS. Ciattaglia
S. Ciattaglia
LBL. Barucca
L. Barucca

18 August 2022 in Environments
Verified
Journal Article
Open access
PDF file
CSCamillo Sartorio
Camillo Sartorio
MAMassimo Angiolini
Massimo Angiolini
DFDavide Flammini
Davide Flammini
Antonino PietropaoloAntonino Pietropaolo
Antonino Pietropaolo
PAPietro Agostini
Pietro Agostini
GZGiuseppe Zummo
Giuseppe Zummo
The SORGENTINA-RF project aims at developing a 14 MeV fusion neutron source featuring an emission rate in the order of 5–7 × 1013 s−1. The plant relies on a metallic water-cooled rotating target and a deuterium (50%) and tritium (50%) ion beam. Beyond the main focus of medical radioisotope production, the source may represent a multi-purpose neutron facility by implementing a series of neutron-based techniques. Among the different engineering and technological issues to be addressed, the production of incondensable gases and corrosion product into the rotating target deserves a dedicated investigation. In this study, a preliminary analysis is carried out, considering the general layout of the target and the present choice of the target material.