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Comparison of proton microbeam and gamma irradiation for the radiation hardness testing of silicon PIN diodes
被引:3
|作者:
Jaksic, M.
[1
]
Grilj, V.
[1
]
Skukan, N.
[1
]
Majer, M.
[1
]
Jung, H. K.
[2
]
Kim, J. Y.
[2
]
Lee, N. H.
[2
]
机构:
[1] Rudjer Boskovic Inst, Zagreb 10000, Croatia
[2] Korea Atom Energy Res Inst, Taejon 305353, South Korea
来源:
JOURNAL OF INSTRUMENTATION
|
2013年
/
8卷
基金:
新加坡国家研究基金会;
关键词:
Radiation damage to detector materials (solid state);
Solid state detectors;
Radiation-hard detectors;
Accelerator Applications;
NONIONIZING ENERGY-LOSS;
FLOAT-ZONE SILICON;
INDUCED CHARGE;
DEFECT FORMATION;
DAMAGE;
DETECTORS;
GENERATION;
PHOTODIODE;
SI;
DIFFUSION;
D O I:
10.1088/1748-0221/8/09/P09003
中图分类号:
TH7 [仪器、仪表];
学科分类号:
0804 ;
080401 ;
081102 ;
摘要:
Simple and cost-effective solutions using Si PIN diodes as detectors are presently utilized in various radiation-related applications in which excessive exposure to radiation degrades their charge transport properties. One of the conventional methods for the radiation hardness testing of such devices is time-consuming irradiation with electron beam or gamma-ray irradiation facilities, high-energy proton accelerators, or with neutrons from research reactors. Recently, for the purpose of radiation hardness testing, a much faster nuclear microprobe based approach utilizing proton irradiation has been developed. To compare the two different irradiation techniques, silicon PIN diodes have been irradiated with a Co-60 gamma radiation source and with a 6MeV proton microbeam. The signal degradation in the silicon PIN diodes for both irradiation conditions has been probed by the IBIC (ion beam induced charge) technique, which can precisely monitor changes in charge collection efficiency. The results presented are reviewed on the basis of displacement damage calculations and NIEL (non-ionizing energy loss) concept.
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页数:15
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