...
首页> 外文期刊>Surface & Coatings Technology >Plasma characteristics and target erosion profile of racetrack-shaped RF magnetron plasma with weak rubber magnets for full circular target utilization
【24h】

Plasma characteristics and target erosion profile of racetrack-shaped RF magnetron plasma with weak rubber magnets for full circular target utilization

机译:带有弱橡胶磁体的跑道形RF磁控管等离子体的等离子体特性和靶腐蚀曲线,用于全面利用圆形靶材

获取原文
获取原文并翻译 | 示例
           

摘要

We have developed the racetrack-shaped RF magnetron plasma with weak rubber magnets (ferrite and neodymium) for the full utilization of the circular target and the reduction of the magnet weight. The magnetic field simulations are analyzed for the ferrite rubber magnets, the neodymium rubber magnets, and the neodymium rubber magnets including the neodymium metal magnets. The magnetic flux density indicates a mountain like profile between the magnets, having a maximum for the neodymium rubber and metal magnets. It is found that the ion flux to the target has a peak in the gap between two rubber magnets and the value remarkably increases with the addition of neodymium metal magnets. The erosion of the circular copper target, with 100 mm in diameter, has been studied by rotating the racetrack-shaped RF magnetron plasma for the neodymium rubber magnets including the neodymium metal magnets. It is seen that radial profile of the erosion depth keeps roughly constant until r = 20 mm and then decreases gradually away from the center for RF power of 40 W, Ar gas pressure of 2 Pa and sputtering time of 4 h. The target utilization is approximately 72% estimated from the erosion profile. (C) 2016 Elsevier B.V. All tights reserved.
机译:为了充分利用圆形靶材并减轻磁铁重量,我们开发了具有弱橡胶磁铁(铁氧体和钕)的跑道形RF磁控管等离子体。分析了铁氧体橡胶磁铁,钕橡胶磁铁以及包括钕金属磁铁的钕橡胶磁铁的磁场模拟。磁通密度表示磁体之间的山形轮廓,其中钕橡胶和金属磁体具有最大值。发现到靶的离子通量在两个橡胶磁体之间的间隙中具有峰值,并且该值随着添加钕金属磁体而显着增加。通过旋转用于包括钕金属磁体的钕橡胶磁体的跑道形RF磁控管等离子体,研究了直径为100 mm的圆形铜靶的腐蚀。可以看出,腐蚀深度的径向轮廓大致保持恒定,直到r = 20 mm,然后逐渐远离中心逐渐减小,这是因为40 W的RF功率,2 Pa的Ar气压和4 h的溅射时间。根据侵蚀曲线估算,目标利用率约为72%。 (C)2016 Elsevier B.V.版权所有。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号