变压器
超导磁储能
超导磁体
电磁线圈
超导电机
导电体
材料科学
电感
磁铁
核工程
电气工程
电流互感器
超导射频
超导电性
磁场
磁能
机械工程
电磁铁
核磁共振
磁通量
工程物理
超导导线
聚变能
低温学
工作温度
储能
电气设备
电感器
发电
电压
超导线圈
温度测量
铌锡
节能变压器
作者
M Kumar,Piyush Joshi,Ramesh Chandra Gupta,Mike Anerella,A. Marone
标识
DOI:10.1109/tasc.2026.3656872
摘要
The manufacturing of superconducting magnets for High Energy Physics (HEP) and Fusion Energy Sciences (FES) applications requires high-current conductors to generate stronger magnetic fields without increasing the inductance of the magnet. Increased inductance is undesirable due to the associated AC losses, which reduce the temperature margin; and the quench protection also becomes complicated. Testing high-current conductors with a direct current (DC) room temperature power supply is unfeasible for two primary reasons: 1) the limited capacity to supply large currents, and 2) the significant heat load losses at the current leads. A superconducting transformer offers a solution to both challenges. A 50-kA superconducting transformer is planned for manufacturing and commissioning at Brookhaven National Laboratory as part of its user facility upgrade. This transformer will facilitate the testing of superconducting cables, conductors, joints, and insert coils under high magnetic field conditions (10 T) and with currents up to 50-kA. To evaluate the manufacturing process and validate the theoretical models, the magnet division has developed and tested a 15-kA prototype transformer. A control loop has been implemented to ensure precise current delivery to the sample. This paper presents the coil design, manufacturing, and experimental results from the cold tests.
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