TY - JOUR
T1 - JINTRAC
T2 - A system of codes for integrated simulation of Tokamak scenarios
AU - Romanelli, M.
AU - Corrigan, G.
AU - Parail, V.
AU - Wiesen, S.
AU - Ambrosino, R.
AU - Da Silva Aresta Belo, P.
AU - Garzotti, L.
AU - Harting, D.
AU - Köchl, F.
AU - Koskela, T.
AU - Lauro-Taroni, L.
AU - Marchetto, C
AU - Mattei, M.
AU - Militello-Asp, E.
AU - Nave, M.F.F.
AU - Pamela, S.
AU - Salmi, Antti
AU - Strand, P.
AU - Szepesi, G.
AU - Contributors, EFDA-JET
PY - 2014
Y1 - 2014
N2 - Operation and exploitation of present and future Tokamak
reactors require advanced scenario modeling in order to
optimize engineering parameters in the design phase as
well as physics performance during the exploitation
phase. The simulation of Tokamak scenarios involves
simultaneous modeling of different regions of the
reactor, characterized by different physics and
symmetries, in order to predict quantities such as
particle and energy confinement, fusion yield, power
deposited on wall, wall load from fast particles. JINTRAC
is a system of 25 interfaced Tokamak-physics codes for
the integrated simulation of all phases of a Tokamak
scenario. JINTRAC predictions reflect the physics and
assumptions implemented in each module and extensive
comparison with experimental data is needed to allow
validation of the models and improvement of
Tokamak-physics understanding.
AB - Operation and exploitation of present and future Tokamak
reactors require advanced scenario modeling in order to
optimize engineering parameters in the design phase as
well as physics performance during the exploitation
phase. The simulation of Tokamak scenarios involves
simultaneous modeling of different regions of the
reactor, characterized by different physics and
symmetries, in order to predict quantities such as
particle and energy confinement, fusion yield, power
deposited on wall, wall load from fast particles. JINTRAC
is a system of 25 interfaced Tokamak-physics codes for
the integrated simulation of all phases of a Tokamak
scenario. JINTRAC predictions reflect the physics and
assumptions implemented in each module and extensive
comparison with experimental data is needed to allow
validation of the models and improvement of
Tokamak-physics understanding.
KW - Tokamak
KW - scenario modelling
KW - integrated modelling
KW - transport
KW - scrape-off layer
KW - fuelling and heating
U2 - 10.1585/pfr.9.3403023
DO - 10.1585/pfr.9.3403023
M3 - Article
VL - 9
JO - Plasma and Fusion Research
JF - Plasma and Fusion Research
SN - 1880-6821
M1 - 3403023
ER -