journal article·2014-02

Solid phase epitaxial growth of 3C–SiC thin film on Si and annihilation of nanopores

R. Goswami, C.H. Li, G.G. Jernigan, P.E. Thompson, C.S. Hellberg, B.T. Jonker

Acta Materialia· Volume 65
Publisher page

Abstract

Abstract The solid phase epitaxial growth of 3C–SiC, 2–5 nm thick, on (0 0 1) Si by annealing 1–2 nm carbon overlayers has been investigated by transmission electron microscopy and X-ray photoelectron spectroscopy. High-temperature annealing in the range of 850–950 °C results in solid phase cube-on-cube epitaxial growth of SiC films. This is accompanied by the formation of nanopores below the SiC epilayer in the Si substrate. Such nanopores, formed with truncated octahedron morphology consisting of {1 1 1} and (0 0 1) facets, are annihilated by diffusion of Ge deposited onto the SiC surface. It was also observed that the Ge islands on top of SiC exhibit a cube-on-cube orientation relation with SiC and the Ge overlayer reduces the density of faults in SiC considerably.
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Research context

OpenAlex topics: Silicon Carbide Semiconductor Technologies · Semiconductor materials and devices · Semiconductor materials and interfaces

SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.

References (32)

Show source-provided references
1. Madapura · J Electrochem Soc · 1999 · 146 · 119710.1149/1.1391745 ↗
2. Fissel · Appl Phys Lett · 1995 · 66 · 318210.1063/1.113716 ↗
3. Powell · Appl Phys Lett · 1990 · 56 · 144210.1063/1.102492 ↗
4. Matsunami · Physica B · 1993 · 185 · 6510.1016/0921-4526(93)90215-R ↗
5. Kusunoki · Appl Surf Sci · 1990 · 45 · 17110.1016/0169-4332(90)90001-G ↗
6. Motoyama · J Appl Phys · 1990 · 68 · 10110.1063/1.347099 ↗
7. Yoshinobu · J Appl Phys · 1992 · 72 · 200610.1063/1.351628 ↗
8. Zekentes · J Cryst Growth · 1995 · 157 · 39210.1016/0022-0248(95)00330-4 ↗
9. Addamiano · Appl Phys Lett · 1984 · 44 · 52510.1063/1.94820 ↗
10. Liaw · J Electrochem Soc · 1985 · 132 · 64210.1149/1.2113921 ↗
11. Powell · J Electrochem Soc · 1987 · 134 · 155810.1149/1.2100708 ↗
12. Steckl · Appl Phys Lett · 1993 · 63 · 334710.1063/1.110140 ↗
13. Sorokin · Tech Phys Lett · 2008 · 34 · 99210.1134/S1063785008110278 ↗
14. Kukushkin · Phys Solid State · 2008 · 50 · 123810.1134/S1063783408070081 ↗
15. Motoyama · Appl Phys Lett · 1989 · 54 · 24210.1063/1.101001 ↗
16. Scholz · Appl Phys A · 1997 · 64 · 11510.1007/s003390050452 ↗
17. Steckl · IEEE Trans Electron Devices · 1992 · 39 · 6410.1109/16.108213 ↗
18. Nishino · Appl Phys Lett · 1983 · 42 · 46010.1063/1.93970 ↗
19. Piroz · Appl Phys Lett · 1987 · 50 · 22110.1063/1.97667 ↗
20. Piroz · Proc Mater Res Soc Symp · 1987 · 91 · 39910.1557/PROC-91-399 ↗
21. Bernstein · Phys Rev B · 2005 · 71 · 07520310.1103/PhysRevB.71.075203 ↗
22. Qadri · J Appl Phys · 2012 · 111 · 07352310.1063/1.3702582 ↗
23. Olesinski · 1990
24. Cahn JW, Kalonji G. In: Aaronson HI, Lauglin DE, Sekerka RE, Wayman CM, editors. Proc international conference on solid–solid phase transformations. Warrendale (PA): AIME; 1982.
25. Goswami · Acta Metall Mater · 1995 · 43 · 283710.1016/0956-7151(94)00466-U ↗
26. Browning · Nature · 1993 · 366 · 14310.1038/366143a0 ↗
27. Robinson · Nanotechnology · 2009 · 20 · 08570810.1088/0957-4484/20/8/085708 ↗
28. Petz · Appl Phys Lett · 2012 · 100 · 14160310.1063/1.3699223 ↗
29. Pizzagalli · Phys Rev B · 2003 · 68 · 19530210.1103/PhysRevB.68.195302 ↗
30. Wen · J Appl Phys · 2009 · 106 · 07352210.1063/1.3234380 ↗
31. Weih · J Phys Status Solidi A · 2005 · 202 · 54510.1002/pssa.200460418 ↗
32. Roe · J Vac Sci Technol B · 1999 · 17 · 130110.1116/1.590745 ↗