Symmetric beam line technique for a single-wafer ultra-high energy ion implanter

S. Ninomiya, H. Sasaki, K. Inada, K. Kato, Yoshitaka Amano, Kazuhiro Watanabe, M. Kabasawa, H. Kariya, M. Tsukihara, K. Ueno
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引用次数: 3

Abstract

In order to fabricate highly sensitive image sensors, ultra-high energy ion beams, such as 5 MeV of boron, are required. SEN has developed the S-UHE, a single-wafer ultra-high energy ion implanter, to obtain such ultra-high energy beams. The S-UHE has adopted an electrostatic and symmetric, parallelizing lens system, the concept of which is already used in the MC3-II, a medium-current ion implanter, and the SHX, a single-wafer high-current implanter. This system provides very good uniformity, even when a large amount of outgassing from photoresist materials is generated. Since the ion beam energy is so high at the lens system, a compound electrostatic parallelizing lens system is introduced. Beam angles have been controlled within 0.05° for any recipe in experiments with the electrostatic parallelizing lens system. Another beam line element specifically adopted in the S-UHE is an electric quadrupole lens installed between the two dipole magnets, in order to suppress beam current loss. This electric lens can easily form achromatic ion beam transportation without any significant deformation of the magnetic field.
单晶片超高能量离子注入器的对称束线技术
为了制造高灵敏度的图像传感器,需要超高能量离子束,例如5 MeV的硼。SEN开发了单晶片超高能量离子注入器S-UHE,以获得这种超高能量束。S-UHE采用了静电对称平行透镜系统,该系统的概念已用于MC3-II中电流离子注入器和SHX单晶片大电流注入器。该系统提供了非常好的均匀性,即使产生大量的光致抗蚀剂脱气。针对透镜系统中离子束能量过高的问题,提出了一种复合静电平行透镜系统。在静电平行透镜系统的实验中,光束角度被控制在0.05°以内。S-UHE中专门采用的另一种光束线元件是安装在两个偶极磁铁之间的电动四极透镜,以抑制光束电流损耗。这种电子透镜可以很容易地形成消色差离子束传输,而不会引起磁场的明显变形。
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