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Development of in-vessel neutron flux monitor equipped with microfission chambers to withstand the extreme ITER environment

机译:配备微裂变室的车载中子通量监测仪的开发,可承受极端的ITER环境

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摘要

Via thermal cycling and vibration tests, this study aims to demonstrate that the in-vessel components of the microfission chamber (MFC) system can withstand the extreme International Thermonuclear Experimental Reactor (ITER) environment. In thermal cycle tests, the signal cable of the device was bent into a smaller radius and it was given more bends than those in its actual configuration within ITER. A faster rate of temperature change than that under the typical ITER baking scenario was then imposed on in-vessel components. For the vibration tests, strong 10 G vibrational accelerations with frequencies ranging from 30 Hz to 2000 Hz were imposed to the detector and the connector of the in-vessel components to simulate various types of electromagnetic events. Soundness verification tests of the in-vessel components conducted after thermal cycling and vibration testing indicated that problems related to the signal transmission cable functioning were not found. Thus, it was demonstrated that the in-vessel components of the MFC can withstand the extreme environment within ITER. (C) 2015 Elsevier B.V. All rights reserved.
机译:通过热循环和振动测试,本研究旨在证明微裂变室(MFC)系统的容器内组件可以承受极端的国际热核实验堆(ITER)环境。在热循环测试中,该设备的信号电缆弯曲成较小的半径,并且比在ITER中的实际配置弯曲更多。然后,对容器内部件施加比典型的ITER烘烤方案更快的温度变化率。对于振动测试,将频率从30 Hz到2000 Hz的10 G强振动加速度施加到检测器和船内组件的连接器,以模拟各种类型的电磁事件。在热循环和振动测试之后对容器内组件进行的健全性验证测试表明,未发现与信号传输电缆功能相关的问题。因此,证明了MFC的容器内组件可以承受ITER内的极端环境。 (C)2015 Elsevier B.V.保留所有权利。

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