锡
硅
兴奋剂
材料科学
辐照
电阻率和电导率
分析化学(期刊)
载流子寿命
辐射硬化
电子束处理
硬化(计算)
电子
辐射
放射化学
核化学
冶金
化学
光电子学
复合材料
电气工程
光学
物理
图层(电子)
核物理学
工程类
量子力学
色谱法
作者
Mykola Kras'ko,Andrii Kolosiuk,Vasyl Voitovych,V. Yu. Povarchuk
标识
DOI:10.1002/pssa.202100209
摘要
Herein, the results that determine some conditions for increasing the radiation hardness of 60 Co gamma or 1 MeV electron‐irradiated tin‐doped n‐type Czochralski silicon (Cz n‐Si:Sn) are presented. These conditions are determined from the analysis of the formation kinetics of dominant radiation defects (namely, VO and SnV complexes) and the recombination of charge carriers through the electronic levels of these defects in samples with different concentrations of phosphorus and tin. It is shown that low‐resistivity Cz n‐Si with P doping levels >5 × 10 14 cm −3 containing in addition [Sn] ≈10 17 –10 19 cm −3 has a radiation hardening potential. In this material, the radiation degradation of carrier lifetime is several times smaller compared with Sn‐free n‐Si, whereas the conductivity compensation is negligible for both materials. The reduction of the lifetime degradation rate is due to a reduction of VO concentration in low‐resistivity Cz n‐Si:Sn.
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