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H R MIRZAEI, R AMROLLAHI. Design, simulation and construction of the Taban tokamak[J]. Plasma Science and Technology, 2018, 20(4): 45103-045103. DOI: 10.1088/2058-6272/aaa669
Citation: H R MIRZAEI, R AMROLLAHI. Design, simulation and construction of the Taban tokamak[J]. Plasma Science and Technology, 2018, 20(4): 45103-045103. DOI: 10.1088/2058-6272/aaa669

Design, simulation and construction of the Taban tokamak

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  • Received Date: November 27, 2017
  • This paper describes the design and construction of the Taban tokamak, which is located in Amirkabir University of Technology, Tehran, Iran. The Taban tokamak was designed for plasma investigation. The design, simulation and construction of essential parts of the Taban tokamak such as the toroidal field (TF) system, ohmic heating (OH) system and equilibrium field system and their power supplies are presented. For the Taban tokamak, the toroidal magnetic coil was designed to produce a maximum field of 0.7T at R=0.45 m. The power supply of the TF was a 130 kJ, 0–10 kV capacitor bank. Ripples of toroidal magnetic field at the plasma edge and plasma center are 0.2% and 0.014%, respectively. For the OH system with 3 kA current, the stray field in the plasma region is less than 40 G over 80% of the plasma volume. The power supply of the OH system consists of two stages, as follows. The fast bank stage is a 120 μF, 0–5kV capacitor that produces 2.5 kA in 400 μs and the slow bank stage is 93 mF, 600 V that can produce a maximum of 3 kA. The equilibrium system can produce uniform magnetic field at plasma volume. This system’s power supply, like the OH system, consists of two stages, so that the fast bank stage is 500 μF, 800 V and the slow bank stage is 110 mF, 200 V.
  • [1]
    Smirnov V P 2010 Nucl. Fusion 50 014003
    [2]
    Dolan T J 1996 Nucl. Fusion 36 1425
    [3]
    Khorshid P et al 2008 Presented at the 22nd IAEA Fusion Energy Conf. pp 13–8
    [4]
    An Y et al 2015 Fusion Eng. Des. 96 274
    [5]
    Wesson J and Campbell D J 2011 tokamaks 4th edn (Oxford: Oxford University Press)
    [6]
    Freidberg J P 2008 Plasma Physics and Fusion Energy (Cambridge: Cambridge University Press)
    [7]
    Panek R et al 2017 Fusion Eng. Des. 123 11
    [8]
    Khvostenko P et al 2017 Fusion Eng. Des. 124 114
    [9]
    Li Q 2015 Fusion Eng. Des. 96 338
    [10]
    Panek R et al 2015 Plasma Phys. Control. Fusion 58 014015
    [11]
    Miri A M 1999 Presented at the High Voltage Engineering Eleventh Int. Symp. on (Conf. Publ. No. 467)
    [12]
    Berlec M et al 2010 Presented at the MECHATRONIKA 13th Int. Symp.
    [13]
    Korotkov V et al 2001 Fusion Eng. Des. 56 831
    [14]
    Artsimovich L 1972 Nucl. Fusion 12 215
    [15]
    Davidson J N 1976 Nucl. Fusion 16 731
    [16]
    Sadler G et al 1992 Plasma Phys. Control. Fusion 34 1971
    [17]
    Petrie T et al 1980 Nucl. Fusion 20 419
    [18]
    Oyama N et al 2008 Presented at the Journal of Physics: Conf. Series
    [19]
    Kim S K 2013 Fusion Eng. Des. 88 276
    [20]
    Zheng J et al 2015 Fusion Eng. Des. 91 30
    [21]
    Luxon J L 2002 Nucl. Fusion 42 614
    [22]
    Jiang W et al 2016 Nucl. Fusion 56 126017
    [23]
    de Kluiver H and Piekaar H W 1974 Heating and Containment of a Plasma in a Small tokamak Device (The Netherlands: FOM-Instituut voor plasma-fysica)
    [24]
    Bahl R et al 1997 Presented at the fusion engineering 17th IEEE/NPSS Symp.
    [25]
    Ludwig G O et al 2003 Braz. J. Phys. 33 848
    [26]
    Sathyanarayana K et al 1993 Rev. Sci. Instrum. 64 1263
    [27]
    Krylov V et al 2001 Fusion Eng. Des. 56 825
    [28]
    Lloyd B T et al 1991 Nucl. Fusion 31 2031
    [29]
    Zhang M et al 2016 Fusion Eng. Des. 108 92

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