M. Zlobinski, G. Sergienko, I. Jepu, C. Rowley, A. Widdowson, R. Ellis, D. Kos, I. Coffey, M. Fortune, D. Kinna, M. Beldishevski, A. Krimmer, H.T. Lambertz, A. Terra, A. Huber, S. Brezinsek, T. Dittmar, M. Flebbe, R. Yi, R. Rayaprolu, J. Figueiredo, P. Blatchford, S. Silburn, E. Tsitrone, E. Joffrin, K. Krieger, Y. Corre, A. Hakola, J. Likonen, the Eurofusion Tokamak Exploitation Team and JET Contributors
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引用次数: 0
摘要
本文报告了 2023 年夏季在大型聚变装置上首次演示的原位激光诱导解吸-四极杆质谱(LID-QMS)应用。激光诱导解吸-四极杆质谱仪可以直接测量等离子体中的燃料库存,而无需从聚变装置中取出。诊断仪通过使用 1 毫秒长的激光脉冲加热壁上直径为 3 毫米的光斑来解吸保留的气体,并通过 QMS 对其进行检测。因此,它可以在激光可及的任何墙壁位置测量气体含量。LID-QMS 在实验室和中型核聚变装置上的成功应用现已在大型装置上得到验证,并已预计在国际热核聚变实验堆中用作氚监测诊断仪。这种原位诊断方法可以在短时间内直接获取滞留物理学信息,而不是进行运动集成测量,并可以评估空间分辨脱核方法的有效性。LID-QMS 可应用于多种材料:如 JET 中的 Be 沉积物、TEXTOR 中的 B 沉积物、C 基材料或 bulk-W。
First results of laser-induced desorption - quadrupole mass spectrometry (LID-QMS) at JET
The paper reports the first demonstration of in situ laser-induced desorption — quadrupole mass spectrometry (LID-QMS) application on a large scale fusion device performed in summer 2023. LID-QMS allows direct measurements of the fuel inventory of plasma facing components without retrieving them from the fusion device. The diagnostic desorbs the retained gases by heating a 3 mm diameter spot on the wall using a 1 ms long laser pulse and detects them by QMS. Thus, it can measure the gas content at any wall position accessible to the laser. The successful LID-QMS application in laboratory scale and on medium size fusion devices has now been demonstrated on the larger scale and it is already foreseen as tritium monitor diagnostic in ITER. This in situ diagnostic gives direct access to retention physics on a short timescale instead of campaign-integrated measurements and can assess the space-resolvedefficacy of detritation methods. LID-QMS can be applied on many materials: on Be deposits like in JET, B deposits like in TEXTOR, C based materials or on bulk-W.
期刊介绍:
Nuclear Fusion publishes articles making significant advances to the field of controlled thermonuclear fusion. The journal scope includes:
-the production, heating and confinement of high temperature plasmas;
-the physical properties of such plasmas;
-the experimental or theoretical methods of exploring or explaining them;
-fusion reactor physics;
-reactor concepts; and
-fusion technologies.
The journal has a dedicated Associate Editor for inertial confinement fusion.