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Methods of forming three-dimensional nanodot arrays in a matrix
   
Document Number
US Patent 7105118
Issued Date
September 12, 2006
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Abstract
Nanostructures and methods of making nanostructures having self-assembled nanodot arrays wherein nanodots are self-assembled in a matrix material due to the free energies of the nanodot material and/or differences in the Gibb's free energy of the nanodot materials and matrix materials.
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Number of Claims:
23
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Published
September 12, 2006
Application Number
10/723,842
Filed
November 26, 2003
US Classification
264/210.6   257/E29.071 257/E51.005 257/E51.04 438/105 438/778
Int'l Classification
B82B   3/00   (20060101)   H01L   21/4763   (20060101)  
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Assistant Examiner
Parent Case
CROSS-REFERENCE TO RELATED APPLICATIONS This application claims the benefit of, and incorporates herein by reference in its entirety, the following United States Provisional Application: U.S. Provisional Application No. 60/430,210 filed Dec. 2, 2002.
USPTO Field of Search
257/E51.04  
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7494831 - Process for making stacks of islands made of one semiconducting material encapsulated in another semiconducting material - Owned by Commissariat a l'Energie Atomique (Paris,FR)

The invention relates to the production of a stacked structure of planes of islands of a first semiconducting material encapsulated in a second semiconducting material on a substrate, comprising alternate deposition of planes of islands of a first semiconducting material and encapsulation layers of a second semiconducting material, the planes of islands of the first semiconducting material being made at an optimum growth temperature and at an optimum precursor gas partial pressure to result in a stacked structure for which the optical properties enable production of optoelectronic components to optically interconnect integrated circuits. The stacked structure is made on a plane of islands of a third semiconducting material called the sacrificial plane encapsulated in a fourth semiconducting material, the islands of the sacrificial plane being made under growth conditions that can result in high densities of small islands, in other words at a temperature below the optimum growth temperature and/or at a precursor gas partial pressure greater than the optimum partial pressure.

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