Structure analysis of defects in nanometer space inside a crystal: Creation and agglomeration of point defects in Si and Ge revealed by high-resolution electron microscopy

Recent structural studies of point‐defect‐agglomerates in Si and Ge by high‐resolution transmission electron microscopy (HRTEM) are compiled along with some new results. After examining the wave nature of incident electrons on defect formation during HRTEM observation and the correlated recombinatio...

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Published inMicroscopy research and technique Vol. 40; no. 4; pp. 313 - 335
Main Author Takeda, S.
Format Journal Article
LanguageEnglish
Published Hoboken Wiley Subscription Services, Inc., A Wiley Company 15.02.1998
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Abstract Recent structural studies of point‐defect‐agglomerates in Si and Ge by high‐resolution transmission electron microscopy (HRTEM) are compiled along with some new results. After examining the wave nature of incident electrons on defect formation during HRTEM observation and the correlated recombination of point defects under electron irradiation, we show that HRTEM is the unique means to analyze the atomic structure of small agglomerates of point defects, nanometer in size, inside a crystal. Emphasis is placed on the extension of studies made possible only by the elaborate and crucial structure determination by HRTEM: the mechanism of agglomeration at the atomic level, the extraction of novel unit structures of point defects, and the electronic structure of the agglomerate. Some examples on the subjects are demonstrated in cases of the {113} and {001} defects. The effect of specimen surfaces on structure determination is also discussed. Finally, a development of TEM technique with in‐situ optical spectroscopy is described, which is utilized to pursue interaction of point defects under electron irradiation and thus may reinforce HRTEM experiments. Microsc. Res. Tech. 40:313–335, 1998. © 1998 Wiley‐Liss, Inc.
AbstractList Recent structural studies of point-defect-agglomerates in Si and Ge by high-resolution transmission electron microscopy (HRTEM) are compiled along with some new results. After examining the wave nature of incident electrons on defect formation during HRTEM observation and the correlated recombination of point defects under electron irradiation, we show that HRTEM is the unique means to analyze the atomic structure of small agglomerates of point defects, nanometer in size, inside a crystal. Emphasis is placed on the extension of studies made possible only by the elaborate and crucial structure determination by HRTEM: the mechanism of agglomeration at the atomic level, the extraction of novel unit structures of point defects, and the electronic structure of the agglomerate. Some examples on the subjects are demonstrated in cases of the [113] and [001] defects. The effect of specimen surfaces on structure determination is also discussed. Finally, a development of TEM technique with in-situ optical spectroscopy is described, which is utilized to pursue interaction of point defects under electron irradiation and thus may reinforce HRTEM experiments.Recent structural studies of point-defect-agglomerates in Si and Ge by high-resolution transmission electron microscopy (HRTEM) are compiled along with some new results. After examining the wave nature of incident electrons on defect formation during HRTEM observation and the correlated recombination of point defects under electron irradiation, we show that HRTEM is the unique means to analyze the atomic structure of small agglomerates of point defects, nanometer in size, inside a crystal. Emphasis is placed on the extension of studies made possible only by the elaborate and crucial structure determination by HRTEM: the mechanism of agglomeration at the atomic level, the extraction of novel unit structures of point defects, and the electronic structure of the agglomerate. Some examples on the subjects are demonstrated in cases of the [113] and [001] defects. The effect of specimen surfaces on structure determination is also discussed. Finally, a development of TEM technique with in-situ optical spectroscopy is described, which is utilized to pursue interaction of point defects under electron irradiation and thus may reinforce HRTEM experiments.
Recent structural studies of point-defect-agglomerates in Si and Ge by high-resolution transmission electron microscopy (HRTEM) are compiled along with some new results. After examining the wave nature of incident electrons on defect formation during HRTEM observation and the correlated recombination of point defects under electron irradiation, we show that HRTEM is the unique means to analyze the atomic structure of small agglomerates of point defects, nanometer in size, inside a crystal. Emphasis is placed on the extension of studies made possible only by the elaborate and crucial structure determination by HRTEM: the mechanism of agglomeration at the atomic level, the extraction of novel unit structures of point defects, and the electronic structure of the agglomerate. Some examples on the subjects are demonstrated in cases of the [113] and [001] defects. The effect of specimen surfaces on structure determination is also discussed. Finally, a development of TEM technique with in-situ optical spectroscopy is described, which is utilized to pursue interaction of point defects under electron irradiation and thus may reinforce HRTEM experiments.
Recent structural studies of point‐defect‐agglomerates in Si and Ge by high‐resolution transmission electron microscopy (HRTEM) are compiled along with some new results. After examining the wave nature of incident electrons on defect formation during HRTEM observation and the correlated recombination of point defects under electron irradiation, we show that HRTEM is the unique means to analyze the atomic structure of small agglomerates of point defects, nanometer in size, inside a crystal. Emphasis is placed on the extension of studies made possible only by the elaborate and crucial structure determination by HRTEM: the mechanism of agglomeration at the atomic level, the extraction of novel unit structures of point defects, and the electronic structure of the agglomerate. Some examples on the subjects are demonstrated in cases of the {113} and {001} defects. The effect of specimen surfaces on structure determination is also discussed. Finally, a development of TEM technique with in‐situ optical spectroscopy is described, which is utilized to pursue interaction of point defects under electron irradiation and thus may reinforce HRTEM experiments. Microsc. Res. Tech. 40:313–335, 1998. © 1998 Wiley‐Liss, Inc.
Author Takeda, S.
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1966; 14
1995; B52
1995; B51
1995; A72
1974; 29a
1993; A67
1964; 134
1975
1983; 52
1995; 377
1985; 66
1976; 28
1981; B24
1992; B45
1994; 65
1992; B46
1994; B50
1990; 61
1981; 44
1996; B53
1976; 34
1984; 15
1977; 36
1980; A42
1995; 66
1982; A71
1987
1982; 298
1994a; A70
1994; 33
1975; 2
1985
1994b
1983
1981
1977; 78
1992; 45
1993; 137
1994; 73
1993; 134
1991; 2
1991; 39
1990; 38
1990; B41
1991; 30
1971; 23
1985; A3
1995
1994
1986; B34
1993
1989; C1
1992
1994; A58
1989; 27
1981; 60
1990; 62
1982; A381
1983; 116B
1980; 19
1965; 138
1972; A27
1985; A52
1986; 25
1985; B31
1994; 56
1961; 121
1980; 5
1995; 146
1979; 42
1989; B45
1983; 46
1979; A39
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1994; 54
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Snippet Recent structural studies of point‐defect‐agglomerates in Si and Ge by high‐resolution transmission electron microscopy (HRTEM) are compiled along with some...
Recent structural studies of point-defect-agglomerates in Si and Ge by high-resolution transmission electron microscopy (HRTEM) are compiled along with some...
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wiley
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StartPage 313
SubjectTerms Crystallization
electron diffraction channeling
electron irradiation
Electrons
Germanium - chemistry
HRTEM
Image Processing, Computer-Assisted
Microscopy, Electron
Models, Molecular
point defects
Silicon - chemistry
surface
Surface Properties
X-Ray Diffraction
{100} defect
{113} defects
Title Structure analysis of defects in nanometer space inside a crystal: Creation and agglomeration of point defects in Si and Ge revealed by high-resolution electron microscopy
URI https://api.istex.fr/ark:/67375/WNG-4Q2QBB6V-G/fulltext.pdf
https://onlinelibrary.wiley.com/doi/abs/10.1002%2F%28SICI%291097-0029%2819980215%2940%3A4%3C313%3A%3AAID-JEMT6%3E3.0.CO%3B2-S
https://www.ncbi.nlm.nih.gov/pubmed/9523763
https://www.proquest.com/docview/79751110
Volume 40
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