L. Begrambekov, A. Grunin, N. Puntakov, YaroslavSadovskiy, Vyacheslav Р. Budaev, S. Grashin
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引用次数: 0
摘要
原位可再生保护碳化硼(B4C)涂层的应用可以防止等离子体技术和热核器件的等离子体表面材料受到等离子体辐照,从而防止它们被材料的侵蚀破坏和等离子体污染。同时,B4C在钨表面的高粘接沉积机制和条件以及B4C涂层耐等离子体离子热循环和高功率密度辐照的能力还没有得到进一步的研究。本章考虑了离子照射和碳化硼涂层在钨样品上的热循环的结果,在涂层沉积和材料测试站- CODMATT (NRNU MEPhI)和等离子体照射在聚变装置- t -10托卡马克(NRC“库尔恰托夫研究所”)。碳化硼涂层能够承受等离子体离子的热循环和高功率密度辐照。它保持钨的均匀性和附着力,并保护它免受直接等离子体相互作用的温度高达钨的熔点。保持均匀的涂层与钨基板接触,即使在高能等离子体负载后也可以更新其表面的涂层。
In Situ Renewable Coating of Boron Carbide (B4C) for Plasma Materials for Plasma-Technological and Fusion Devices
The application of the in situ renewable protecting boron carbide (B4C) coating can prevent plasma-facing materials of plasma technology and thermonuclear devices from plasma irradiation and by this means prevents their destruction and plasma contamination by materials of their erosion. At the same time, the regimes and conditions of high adhesive deposition of B4C on tungsten and the B4C coating ability to withstand the thermal cycling and high-power density irradiation by plasma ions have not been investigated yet. The chapter considers the results of ion irradiation and thermal cycling of boron carbide coating on tungsten sample in Stand for Coating Deposition and Material Testing— CODMATT (NRNU MEPhI) and plasma irradiation during a plasma disruption in fusion device—T-10 tokamak (NRC “Kurchatov Institute”). Boron carbide coating withstands the thermal cycling and high-power density irradiation by plasma ions. It retains uniformity and adhesion to tungsten and protects it from direct plasma interaction for temperatures up to melting point of tungsten. The retaining of uniform coating in contact with tungsten substrate allows renewing the coating on its surface even after high-energy plasma loads.