Scrutiny on the Static Behavior of Physical Parameters for ITER90H-P Fusion Reactor Using Deuterium–Tritium and Deuterium-Helium Mixtures
DOI:
https://doi.org/10.14331/ijfps.2014.330065Keywords:
Steady, Fusion Gain, Power, Helium, TritiumAbstract
In this work, the performance of fusion reactor ITER90H-P with considering D–T and D-3He fuels are examined by writing the dynamics equations on the system reactor. Therefore, we solve these equations analytically in the steady state. In this state we determine the optimum conditions for achieving the maximum fusion gain .In addition, we ignore the impurities because we need to high performance points without impurities. Our calculations in this paper show that we have maximum fusion gain for DT and D-3He fusion reactions in steady state at resonance temperature Kev70 for D-T fusion reaction respectively .Their maximum values of fusion gain are equal to 6.01 for D-T fuel-andthe0.012 for D-3He, respectively. Therefore, currently, using D-3He as a fusion fuel is not recommended.
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References
Bosch, H.-S., & Hale, G. (1992). Improved formulas for fusion cross-sections and thermal reactivities. Nuclear Fusion, 32(4), 611.
Eremin, A., & Shishkin, A. (2008). Fusion D+ T and D+ D products dynamics for the different fueling scenarios in toroidal magnetic reactors.
Hively, L. (1977). Special topic convenient computational forms for maxwellian reactivities. Nucl. Fusion, 17(4), 873.
Kadomtsev, B. (1992). Tokamak Plasma: A Complex Physical System IOP: Bristol.
Pinna, T., & Rizzello, C. (2002). Safety assessment for ITER-FEAT tritium systems. Fusion engineering and design, 63, 181-186.
Schuster, E., Krstic, M., & Tynan, G. (2003). Burn control in fusion reactors via nonlinear stabilization techniques. Fusion science and technology, 43, 18-37.
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