Semiconducting Ge–Si–Fe alloy grown on Si(100) substrate by reactive deposition epitaxy

Chen, H. ; Han, P. ; Huang, X. D. ; Hu, L. Q. ; Shi, Y. ; Zheng, Y. D.

Woodbury, NY : American Institute of Physics (AIP)
Published 1996
ISSN:
1077-3118
Source:
AIP Digital Archive
Topics:
Physics
Notes:
In this letter, we report a semiconducting Ge–Si–Fe alloy thin film grown on Si(100) by reactive deposition epitaxy using high vacuum evaporation technique. This work is based on the idea that the band structure of β-FeSi2 will be changed with part of the Si atoms in the lattice replaced by Ge atoms. An iron film was first deposited on a SiGe/Si(100) structure, then the alloy was formed during an annealing process. Auger electron spectroscopy and x-ray diffraction results indicate that the new alloy film can be regarded as a distorted β-FeSi2 thin film with the participation of Ge. The direct band gap of the Ge–Si–Fe alloy is determined to be 0.83 eV by optical transmission measurements, which indicate a redshift of the band gap with regard to that of β-FeSi2 (Eg=0.87 eV) thin films. © 1996 American Institute of Physics.
Type of Medium:
Electronic Resource
URL:
_version_ 1798289615304523776
autor Chen, H.
Han, P.
Huang, X. D.
Hu, L. Q.
Shi, Y.
Zheng, Y. D.
autorsonst Chen, H.
Han, P.
Huang, X. D.
Hu, L. Q.
Shi, Y.
Zheng, Y. D.
book_url http://dx.doi.org/10.1063/1.117619
datenlieferant nat_lic_papers
hauptsatz hsatz_simple
identnr NLZ218150377
issn 1077-3118
journal_name Applied Physics Letters
materialart 1
notes In this letter, we report a semiconducting Ge–Si–Fe alloy thin film grown on Si(100) by reactive deposition epitaxy using high vacuum evaporation technique. This work is based on the idea that the band structure of β-FeSi2 will be changed with part of the Si atoms in the lattice replaced by Ge atoms. An iron film was first deposited on a SiGe/Si(100) structure, then the alloy was formed during an annealing process. Auger electron spectroscopy and x-ray diffraction results indicate that the new alloy film can be regarded as a distorted β-FeSi2 thin film with the participation of Ge. The direct band gap of the Ge–Si–Fe alloy is determined to be 0.83 eV by optical transmission measurements, which indicate a redshift of the band gap with regard to that of β-FeSi2 (Eg=0.87 eV) thin films. © 1996 American Institute of Physics.
package_name American Institute of Physics (AIP)
publikationsjahr_anzeige 1996
publikationsjahr_facette 1996
publikationsjahr_intervall 8004:1995-1999
publikationsjahr_sort 1996
publikationsort Woodbury, NY
publisher American Institute of Physics (AIP)
reference 69 (1996), S. 1912-1914
search_space articles
shingle_author_1 Chen, H.
Han, P.
Huang, X. D.
Hu, L. Q.
Shi, Y.
Zheng, Y. D.
shingle_author_2 Chen, H.
Han, P.
Huang, X. D.
Hu, L. Q.
Shi, Y.
Zheng, Y. D.
shingle_author_3 Chen, H.
Han, P.
Huang, X. D.
Hu, L. Q.
Shi, Y.
Zheng, Y. D.
shingle_author_4 Chen, H.
Han, P.
Huang, X. D.
Hu, L. Q.
Shi, Y.
Zheng, Y. D.
shingle_catch_all_1 Chen, H.
Han, P.
Huang, X. D.
Hu, L. Q.
Shi, Y.
Zheng, Y. D.
Semiconducting Ge–Si–Fe alloy grown on Si(100) substrate by reactive deposition epitaxy
In this letter, we report a semiconducting Ge–Si–Fe alloy thin film grown on Si(100) by reactive deposition epitaxy using high vacuum evaporation technique. This work is based on the idea that the band structure of β-FeSi2 will be changed with part of the Si atoms in the lattice replaced by Ge atoms. An iron film was first deposited on a SiGe/Si(100) structure, then the alloy was formed during an annealing process. Auger electron spectroscopy and x-ray diffraction results indicate that the new alloy film can be regarded as a distorted β-FeSi2 thin film with the participation of Ge. The direct band gap of the Ge–Si–Fe alloy is determined to be 0.83 eV by optical transmission measurements, which indicate a redshift of the band gap with regard to that of β-FeSi2 (Eg=0.87 eV) thin films. © 1996 American Institute of Physics.
1077-3118
10773118
American Institute of Physics (AIP)
shingle_catch_all_2 Chen, H.
Han, P.
Huang, X. D.
Hu, L. Q.
Shi, Y.
Zheng, Y. D.
Semiconducting Ge–Si–Fe alloy grown on Si(100) substrate by reactive deposition epitaxy
In this letter, we report a semiconducting Ge–Si–Fe alloy thin film grown on Si(100) by reactive deposition epitaxy using high vacuum evaporation technique. This work is based on the idea that the band structure of β-FeSi2 will be changed with part of the Si atoms in the lattice replaced by Ge atoms. An iron film was first deposited on a SiGe/Si(100) structure, then the alloy was formed during an annealing process. Auger electron spectroscopy and x-ray diffraction results indicate that the new alloy film can be regarded as a distorted β-FeSi2 thin film with the participation of Ge. The direct band gap of the Ge–Si–Fe alloy is determined to be 0.83 eV by optical transmission measurements, which indicate a redshift of the band gap with regard to that of β-FeSi2 (Eg=0.87 eV) thin films. © 1996 American Institute of Physics.
1077-3118
10773118
American Institute of Physics (AIP)
shingle_catch_all_3 Chen, H.
Han, P.
Huang, X. D.
Hu, L. Q.
Shi, Y.
Zheng, Y. D.
Semiconducting Ge–Si–Fe alloy grown on Si(100) substrate by reactive deposition epitaxy
In this letter, we report a semiconducting Ge–Si–Fe alloy thin film grown on Si(100) by reactive deposition epitaxy using high vacuum evaporation technique. This work is based on the idea that the band structure of β-FeSi2 will be changed with part of the Si atoms in the lattice replaced by Ge atoms. An iron film was first deposited on a SiGe/Si(100) structure, then the alloy was formed during an annealing process. Auger electron spectroscopy and x-ray diffraction results indicate that the new alloy film can be regarded as a distorted β-FeSi2 thin film with the participation of Ge. The direct band gap of the Ge–Si–Fe alloy is determined to be 0.83 eV by optical transmission measurements, which indicate a redshift of the band gap with regard to that of β-FeSi2 (Eg=0.87 eV) thin films. © 1996 American Institute of Physics.
1077-3118
10773118
American Institute of Physics (AIP)
shingle_catch_all_4 Chen, H.
Han, P.
Huang, X. D.
Hu, L. Q.
Shi, Y.
Zheng, Y. D.
Semiconducting Ge–Si–Fe alloy grown on Si(100) substrate by reactive deposition epitaxy
In this letter, we report a semiconducting Ge–Si–Fe alloy thin film grown on Si(100) by reactive deposition epitaxy using high vacuum evaporation technique. This work is based on the idea that the band structure of β-FeSi2 will be changed with part of the Si atoms in the lattice replaced by Ge atoms. An iron film was first deposited on a SiGe/Si(100) structure, then the alloy was formed during an annealing process. Auger electron spectroscopy and x-ray diffraction results indicate that the new alloy film can be regarded as a distorted β-FeSi2 thin film with the participation of Ge. The direct band gap of the Ge–Si–Fe alloy is determined to be 0.83 eV by optical transmission measurements, which indicate a redshift of the band gap with regard to that of β-FeSi2 (Eg=0.87 eV) thin films. © 1996 American Institute of Physics.
1077-3118
10773118
American Institute of Physics (AIP)
shingle_title_1 Semiconducting Ge–Si–Fe alloy grown on Si(100) substrate by reactive deposition epitaxy
shingle_title_2 Semiconducting Ge–Si–Fe alloy grown on Si(100) substrate by reactive deposition epitaxy
shingle_title_3 Semiconducting Ge–Si–Fe alloy grown on Si(100) substrate by reactive deposition epitaxy
shingle_title_4 Semiconducting Ge–Si–Fe alloy grown on Si(100) substrate by reactive deposition epitaxy
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timestamp 2024-05-06T08:03:39.096Z
titel Semiconducting Ge–Si–Fe alloy grown on Si(100) substrate by reactive deposition epitaxy
titel_suche Semiconducting Ge–Si–Fe alloy grown on Si(100) substrate by reactive deposition epitaxy
topic U
uid nat_lic_papers_NLZ218150377