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Improvement in Mechanical Support Structure of a High Field ${rm Nb}_{3}{hbox {Al}}$ Common Coil Magnet

机译:改进高磁场$ {rm Nb} _ {3} {hbox {Al}} $普通线圈磁体的机械支撑结构

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The fabrication of a 13 T ${rm Nb}_{3}{hbox {Al}}$ common coil magnet is ongoing at KEK. Magnetic simulation shows that opposite direction Lorenz forces are applied to the two layers of the most center coil, where the maximum magnetic field is located. The forces strongly tend to separate the two layers of the coil, which will lead to the damage to the layer insulation and the movement of the superconducting cable. The preload applied at the room temperature with water pressured bladder, together with the thermal contraction stress of the aluminum shell after cool-down provides support to the coil against the Lorenz forces. An improvement in the mechanical support structure of the common coil is presented in this paper. With the improved support structure, the force transfer efficiency from the aluminum shell to the common coil is largely increased, and the sliding boundary of the coil is not required. As a result, the bladder pressure for the room temperature assembly or the thickness of the aluminum shell can be reduced. The stress behavior of the magnet with the new structure is also presented.
机译:KEK正在制造13 T $ {rm Nb} _ {3} {hbox {Al}} $普通线圈磁体。电磁仿真表明,相反方向的洛伦兹力被施加到最大磁场所在的最中心线圈的两层。该力强烈地倾向于使线圈的两层分开,这将导致对层绝缘和超导电缆的运动的破坏。在室温下通过水压囊施加的预紧力以及冷却后铝壳的热收缩应力为线圈提供了抵抗洛伦兹力的支撑。本文对普通线圈的机械支撑结构进行了改进。利用改进的支撑结构,大大提高了从铝壳到公共线圈的力传递效率,并且不需要线圈的滑动边界。结果,可以减小用于室温组件的气囊压力或铝壳的厚度。还介绍了具有新结构的磁体的应力行为。

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