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Conceptual Design of the ICRH and LHCD Systems for FT-3

机译:FT-3 ICRH和LHCD系统的概念设计

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A conceptual design of a new tokamak has been elaborated by the Fusion Department of ENEA (Frascati, Italy). The machine, so far called FT-3, aims to study burning plasmas and to prepare ITER scenarios thus hoping to be approved to be part of the accompanying program. FT-3 could start operations by the end of the ITER construction. It will be able of high plasma performance in a dimensionless parameter range close to that of ITER with pulse length long enough to address steady state physics. FT-3 will work with Deuterium plasmas and will simulate the alpha particle dynamics by using fast ions accelerated by powerful heating and current drive systems. Main heating source will be an Ion Cyclotron Radio Frequency (ICRF) system that, in its initial configuration, will couple to the plasma 20 MW (extendible to 30 MW) at 60-90 MHz. To address Advanced Scenarios and steady state physics at high plasma density (n{sub}e ≥ 10{sup}20m{sup}(-3)) it is foreseen the installation of a Lower Hybrid (LH) system to control the current profile via off axis Current Drive (CD). A minimum coupled power of 6 MW is considered necessary to achieve the expected scenarios. The LH launching structure is based on the PAM concept, which coupling properties have been recently demonstrated on the Frascati Tokamak Upgrade (FTU). A conceptual analysis of the two systems is given.
机译:Enea(FraScati,Italy)的融合部门阐述了新托卡马克的概念设计。到目前为止,该机器呼叫FT-3,旨在研究燃烧的等离子体,并准备迭代情景,从而希望被批准成为随附程序的一部分。 FT-3可以在迭代结构结束时启动操作。它将能够在无量纲的参数范围内进行高等离子体性能,接近脉冲长度足以满足稳态物理的脉冲长度。 FT-3将使用氘素质等离子体,并通过使用强大的加热和电流驱动系统加速的快速离子模拟alpha粒子动力学。主加热源将是离子回旋射频(ICRF)系统,在其初始配置中,将在60-90 MHz上耦合到等离子体20 MW(延伸至30mW)。以高等离子体密度解决高级场景和稳态物理(n {sub}e≥10{sup} 20m {sup}( - 3)),它预见到更低的混合动力(LH)系统来控制当前配置文件通过轴电流驱动器(CD)。需要最小的6 MW耦合功率以实现预期的情况。 LH发射结构基于PAM概念,最近已经在FraScati Tokamak升级(FTU)上展示了耦合特性。给出了两个系统的概念分析。

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