双低温电流振荡器(DCCC)是一种用于光束线监测的新型样机

Max Stapelfeld, F. Schmidl, P. Seidel, Sabine Stück, V. Tympel, T. Stöhlker, D. Haider, M. Schwickert, T. Sieber, M. Schmelz, T. Schönau, R. Stolz
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引用次数: 0

摘要

低温电流操作员(CCC)是一种创新的概念,用于无损测量由波束线中移动的带电粒子引起的nA电流。经典的CCC设计包括一个环绕高导磁磁芯的环形感应线圈,电感耦合到直流超导量子干涉器件(DC-SQUID),并结合弯曲形状的超导屏蔽。先前的实验表明,通过使用大量相同的环形磁芯材料来增加拾取线圈的电感,可以通过电感变化的平方根来降低噪声密度。我们介绍了一种新的原型,Dual-CCC (DCCC),它通过添加第二个相同的磁芯,第二个拾音器线圈和SQUID(可以独立读出),使拾音器电感比以前的设计增加了一倍。在白噪声区域,组合输出的电流灵敏度约为2 pAHz−1/2。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The Dual-Cryogenic Current Comperator (DCCC) as a new Prototype CCC for Beamline Monitoring
Cryogenic Current Comperators (CCC) are an innovative concept for non-destructive measurements of nA currents caused by moving charged particles in beam lines. Classical CCC designs consist of a toroidal pickup coil around a highly magnetic permeable core inductively coupled to a Direct Current Superconducting Quantum Interference Device (DC-SQUID) in combination with a meander shaped superconducting shield. Previous experiments have shown that increasing the inductance of the pickup coil by utilizing a larger amount of the same ring core material reduces the noise density by the square root of the inductance change. We introduce a novel prototype, the Dual-CCC (DCCC), which doubles the pickup inductance in respect to the previous design by adding a second identical core with a second pickup coil and SQUID, which can be read out independently. The combined output exhibits a current sensitivity of about 2 pAHz−1/2 in the white noise region.
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