Diamond formation in cubic silicon carbide

被引：7

作者：

Pécz, B

Weishart, H

Heera, V

Tóth, L

机构：

[1] Hungarian Acad Sci, Res Inst Tech Phys & Mat Sci, H-1525 Budapest, Hungary

[2] Rossendorf Inc, Forschungszentrum Rossendorf EV, D-01314 Dresden, Germany

来源：

APPLIED PHYSICS LETTERS | 2003年 / 82卷 / 01期

关键词：

D O I：

10.1063/1.1534611

中图分类号：

O59 [应用物理学];

学科分类号：

摘要：

High-dose carbon implantation (3x10(17) and 1x10(18) ions/cm(2)) into cubic SiC on Si was carried out at elevated temperatures (600 to 1200 degreesC) and different dose rates (1x10(13) to 1.5x10(14) cm(-2) s(-1)). Transmission electron microscopy revealed the formation of either graphite or diamond precipitates, depending on the implantation parameters. In all cases, the diamond grains were epitaxial to the SiC lattice, while the graphite was textured. The minimum temperature for diamond formation was 900 degreesC, while graphite formed at 600 degreesC. The synthesized phase depends as well on the dose rate; graphite was formed at 900 degreesC with a high dose rate. Obviously, a critical temperature for diamond formation exists and increases with increasing dose rate. This behavior is explained by the competition between the accumulation and dynamic annealing of radiation defects in the SiC lattice, which acts as a template for diamond nucleation. Diamond grains with diameters as large as 10 nm have been observed after implantation at 1200 degreesC. (C) 2003 American Institute of Physics.

引用

页码：46 / 48

页数：3

共 50 条

[31] RADIATION DAMAGE IN DIAMOND AND SILICON CARBIDE [J].

PRIMAK, W ;

FUCHS, LH ;

DAY, PP .

PHYSICAL REVIEW, 1956, 103 (05) :1185-1192

[32] Formation of cubic silicon carbide layers on silicon under the action of continuous and pulsed carbon ion beams [J].

R. M. Bayazitov ;

I. B. Khaibullin ;

R. I. Batalov ;

R. M. Nurutdinov .

Technical Physics, 2003, 48 :742-744

[33] INFRARED PROPERTIES OF CUBIC SILICON CARBIDE FILMS [J].

SPITZER, WG ;

KLEINMAN, DA ;

FROSCH, CJ .

PHYSICAL REVIEW, 1959, 113 (01) :133-136

[34] Oxynitridation of cubic silicon carbide (100) surfaces [J].

Amy, F ;

Douillard, L ;

Aristov, VY ;

Soukiassian, P .

JOURNAL OF VACUUM SCIENCE & TECHNOLOGY A-VACUUM SURFACES AND FILMS, 1999, 17 (05) :2629-2633

[35] MAGNETORESISTANCE IN THE CUBIC MODIFICATION OF SILICON CARBIDE. [J].

Podlasov, S.A. ;

Sidyakin, V.G. .

1600, (20)

[36] Nanocrystalline Cubic Silicon Carbide: A Route to Superhardness [J].

Sun, Rongxin ;

Wei, Xudong ;

Hu, Wentao ;

Ying, Pan ;

Wu, Yingju ;

Wang, Linyan ;

Chen, Shuai ;

Zhang, Xiang ;

Ma, Mengdong ;

Yu, Dongli ;

Wang, Lin ;

Gao, Guoying ;

Xu, Bo ;

Tian, Yongjun .

SMALL, 2022, 18 (22)

[37] A TWINNING STUDY OF CUBIC (BETA) SILICON CARBIDE [J].

KOHN, JA ;

ECKART, DW .

AMERICAN MINERALOGIST, 1962, 47 (9-10) :1005-&

[38] EDGE PHOTOLUMINESCENCE OF CUBIC SILICON-CARBIDE [J].

ALTAISKII, YM ;

AVRAMENKO, SF ;

GUSEVA, OA ;

KISELEV, VS .

SOVIET PHYSICS SEMICONDUCTORS-USSR, 1987, 21 (11) :1256-1257

[39] MAGNETORESISTANCE IN SILICON-CARBIDE OF CUBIC MODIFICATION [J].

PODLASOV, SA ;

SIDYAKIN, VG .

IZVESTIYA VYSSHIKH UCHEBNYKH ZAVEDENII FIZIKA, 1977, (05) :90-94

[40] Lattice thermal conductivity in cubic silicon carbide [J].

Sparavigna, A .

PHYSICAL REVIEW B, 2002, 66 (17) :1-5

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