DocumentCode
1741691
Title
In-situ fabrication of nanostructures by photo-enhanced chemical vapor deposition using optical near field
Author
Lee, G.H. ; Yamamoto, Y. ; Kourogi, M. ; Ohtsu, M.
Author_Institution
Japan Sci. & Tech. Corp., Tokyo, Japan
fYear
2000
fDate
12-12 May 2000
Firstpage
17
Lastpage
18
Abstract
Summary form only given. Photo-enhanced chemical vapor deposition (PE-CVD) offers the possibility for the lateral integration (i.e., side by side) of different structures (different sequence of layers, materials, thickness and dopants), without the need of any lithography or etching, in a single growth run. In the PE-CVD process, with utilizing the optical near field with nanometric resolution as a light source, the technology allows one to fabricate and modify surface structure down to the nanometric level with high accuracy of controlling position and size. We have previously reported on the in-situ fabrication of the Zn pattern with minimum width of 15 nm by prenucleation method. We demonstrate the method to directly deposit metal atoms by gas phase photodissociation of metalorganic gas. The method has the advantage that the lateral integration of various materials is easy.
Keywords
chemical vapour deposition; light sources; nanostructured materials; nanotechnology; scanning electron microscopy; zinc; 15 nm; Zn; dopants; etching; gas phase photodissociation; in-situ fabrication; lateral integration; layers; light source; lithography; materials; metal atoms; metalorganic gas; nanometric level; nanometric resolution; nanostructures; optical near field; photo-enhanced chemical vapor deposition; prenucleation method; single growth run; surface structure; thickness; Chemical vapor deposition; Etching; Light sources; Lithography; Nanostructured materials; Nanostructures; Optical device fabrication; Optical materials; Size control; Surface structures;
fLanguage
English
Publisher
ieee
Conference_Titel
Quantum Electronics and Laser Science Conference, 2000. (QELS 2000). Technical Digest
Conference_Location
San Francisco, CA, USA
ISSN
1094-5695
Print_ISBN
1-55752-608-7
Type
conf
Filename
901345
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