E. BarziFermi National Accelerator LaboratoryOhio State University
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引用次数: 0
摘要
全球高温超导界的一个主要焦点是为未来的能源前沿计划开发由高温超导体(HTS)制成的高磁场超导磁体。在美国磁体开发计划(US MDP)中,一项关键任务是在由 Nb$_3$Sn 制成的 15 T 外置磁体中开发可产生大于 5 T 磁场的 HTS 插入物,以便为未来的加速器产生 20 T+ 的磁场。Bi$_2$Sr$_2$CaCu$_2$O$_8$_-$$_x$(BiSCO)是唯一可用作各向同性圆形多丝导线的高 T c 超导体,是生产扁平电缆(即卢瑟福型电缆)的理想材料、卢瑟福型电缆)的理想材料。过去十年中,BiSCO 金属丝的开发和产业化取得了重大进展。然而,要在混合磁体中成功使用这种 HTS,仍面临一些挑战。为了提高性能、降低成本和简化 BiSCO 加速器磁体的加工过程,需要采取以下措施:(1) 与工业界合作开发和设计适合卢瑟福布线的 BiSCO 线材;(2) 开发绝缘工艺和材料,防止在高腐蚀性氧气中进行热处理时发生泄漏;(3) 控制应力和应变;(4) 将高压热处理与降低成本和简化加工过程的新方法相结合。
What is Needed for BiSCO to Work in a Dipole Insert for 20 Tesla Hybrid Accelerator Magnets
A major focus of the global HEP community is on high field superconducting
magnets made of High Temperature Superconductors (HTS) for future Energy
Frontier Programs. Within the U.S. Magnet Development Program (US MDP), a key
task is that of developing HTS inserts producing fields larger than 5 T within
15 T outserts made of Nb$_3$Sn to generate 20 T+ for future accelerators.
Bi$_2$Sr$_2$CaCu$_2$O$_8$$_-$$_x$ (BiSCO) is the only high T c superconductor
available as an isotropic round multifilamentary wire, which is ideal for
producing the flat cables (i.e., Rutherford type cables) that are used in
accelerator magnets. Significant progress in the development and
industrialization of BiSCO wires has been made over the last decade. However,
several challenges remain for this HTS to be used successfully in hybrid
magnets. The following is required to improve performance, lower costs and
simplify the processing of BiSCO accelerator magnets: (1) The development and
design, in collaboration with industry, of BiSCO wires that are adequate for
Rutherford cabling; (2) The development of insulation processes and materials
that prevent leaks when heat treated in highly corrosive oxygen; (3) Control of
stresses and strains; and (4) Integration of high pressure heat treatment with
a new approach that will lower costs and simplify processing.