JINTRAC: A system of codes for integrated simulation of Tokamak scenarios

M. Romanelli; G. Corrigan; V. Parail; S. Wiesen; R. Ambrosino; P. Da Silva Aresta Belo; L. Garzotti; D. Harting; F. Köchl; T. Koskela; L. Lauro-Taroni; C Marchetto; M. Mattei; E. Militello-Asp; M.F.F. Nave; S. Pamela; Antti Salmi; P. Strand; G. Szepesi; EFDA-JET Contributors

doi:10.1585/pfr.9.3403023

JINTRAC: A system of codes for integrated simulation of Tokamak scenarios

M. Romanelli
, G. Corrigan
, V. Parail
, S. Wiesen
, R. Ambrosino
, P. Da Silva Aresta Belo
, L. Garzotti
, D. Harting
, F. Köchl
, T. Koskela
, L. Lauro-Taroni
, C Marchetto
, M. Mattei
, E. Militello-Asp
, M.F.F. Nave
, S. Pamela
, Antti Salmi
, P. Strand
, G. Szepesi
, EFDA-JET Contributors

Culham Science Centre
Forschungszentrum Jülich GmbH (FZJ)
University of Naples Federico II
Universidade de Lisboa
Vienna University of Technology (TU Wien)
Aalto University
Institute of Plasma Physics “Pietro Caldirola” (CNR-IFP)
Chalmers University of Technology

Research output: Contribution to journal › Article › Scientific › peer-review

252 Citations (Scopus)

Abstract

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.

Original language	English
Article number	3403023
Number of pages	9
Journal	Plasma and Fusion Research
Volume	9
DOIs	https://doi.org/10.1585/pfr.9.3403023
Publication status	Published - 2014
MoE publication type	A1 Journal article-refereed

UN SDGs

This output contributes to the following UN Sustainable Development Goals (SDGs)

SDG 7 Affordable and Clean Energy

Keywords

Tokamak
scenario modelling
integrated modelling
transport
scrape-off layer
fuelling and heating

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10.1585/pfr.9.3403023

Cite this

Romanelli, M., Corrigan, G., Parail, V., Wiesen, S., Ambrosino, R., Da Silva Aresta Belo, P., Garzotti, L., Harting, D., Köchl, F., Koskela, T., Lauro-Taroni, L., Marchetto, C., Mattei, M., Militello-Asp, E., Nave, M. F. F., Pamela, S., Salmi, A., Strand, P., Szepesi, G., & Contributors, EFDA.-JET. (2014). JINTRAC: A system of codes for integrated simulation of Tokamak scenarios. Plasma and Fusion Research, 9, Article 3403023. https://doi.org/10.1585/pfr.9.3403023

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title = "JINTRAC: A system of codes for integrated simulation of Tokamak scenarios",

abstract = "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.",

keywords = "Tokamak, scenario modelling, integrated modelling, transport, scrape-off layer, fuelling and heating",

author = "M. Romanelli and G. Corrigan and V. Parail and S. Wiesen and R. Ambrosino and \{Da Silva Aresta Belo\}, P. and L. Garzotti and D. Harting and F. K{\"o}chl and T. Koskela and L. Lauro-Taroni and C Marchetto and M. Mattei and E. Militello-Asp and M.F.F. Nave and S. Pamela and Antti Salmi and P. Strand and G. Szepesi and EFDA-JET Contributors",

year = "2014",

doi = "10.1585/pfr.9.3403023",

language = "English",

volume = "9",

journal = "Plasma and Fusion Research",

issn = "1880-6821",

publisher = "The Japan Society of Plasma Science and Nuclear Fusion Research (JSPF)",

}

Romanelli, M, Corrigan, G, Parail, V, Wiesen, S, Ambrosino, R, Da Silva Aresta Belo, P, Garzotti, L, Harting, D, Köchl, F, Koskela, T, Lauro-Taroni, L, Marchetto, C, Mattei, M, Militello-Asp, E, Nave, MFF, Pamela, S, Salmi, A, Strand, P, Szepesi, G & Contributors, EFDA-JET 2014, 'JINTRAC: A system of codes for integrated simulation of Tokamak scenarios', Plasma and Fusion Research, vol. 9, 3403023. https://doi.org/10.1585/pfr.9.3403023

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

SN - 1880-6821

VL - 9

JO - Plasma and Fusion Research

JF - Plasma and Fusion Research

M1 - 3403023

ER -

JINTRAC: A system of codes for integrated simulation of Tokamak scenarios

Abstract

UN SDGs

Keywords

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