通过钛离子和质子的协同辐照提高 GdBCO 涂层导体的场内性能

IF 5.6 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC
Daxing Huang , Hao Dong , Tongxin Wang , Hao Yu , Kaigui Zhu , Hongwei Gu , Fazhu Ding
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引用次数: 0

摘要

辐照可以精确地操纵 REBa2Cu3O7-δ(REBCO,RE:稀土)涂层导体(CCs)中的缺陷并调整其钉化景观。本研究报告了一种利用钛离子和质子协同辐照来显著提高 GdBCO CC 的场内临界电流密度 (Jc) 的有效方法。值得注意的是,在很宽的温度和磁场范围内,商用 CC 的场内临界电流密度几乎可以提高一倍。协同辐照诱导的各种尺寸的缺陷在整个 GdBCO 薄膜中分布更均匀,从而改善了涡流引脚特性,进而提高了 GdBCO CC 的场内性能。这种方法强调了如何结合不同的粒子辐照类型来定制缺陷大小和分布,从而优化商用 REBCO CC 的引脚景观。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enhancing in-field performance of GdBCO coated conductors by cooperative irradiation with Ti ions and protons

Irradiation can accurately manipulate defects and adjust pinning landscapes within REBa2Cu3O7-δ (REBCO, RE: rare earths) coated conductors (CCs). This study reports a productive method to dramatically boost the in-field critical current density (Jc) for GdBCO CCs using cooperative irradiation with Ti ions and protons. Remarkably, the in-field Jc of commercial CCs can be almost doubled at a wide range of temperatures and magnetic fields. Defects of various sizes induced by cooperative irradiation are more uniform distribution through the entire GdBCO film to improve the vortex pinning characteristics, thereby enhancing the in-field performance of the GdBCO CC. This method highlights how combining different particle irradiation types can tailor defect size and distribution, optimizing pinning landscapes for commercial REBCO CCs.

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