Semiconductive Nanostructures - Materials for Spinelectronics: New Data Bank Requirement

Nanoscience, the interdisciplinary science that draws on physics, chemistry, biology, and computational mathematics, is still in its infancy. Control and manipulation on a nanometric scale allow the fabrication of nanostructures, the properties of which are mainly determined by quantum mechanics and...

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Main Author: Paata J Kervalishvili
Format: Article
Language:English
Published: Ubiquity Press 2007-12-01
Series:Data Science Journal
Online Access:http://datascience.codata.org/articles/531
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spelling doaj-0e21020b76be464494bc1a3e4bdabbba2020-11-24T21:42:03ZengUbiquity PressData Science Journal1683-14702007-12-01610.2481/dsj.6.S973533Semiconductive Nanostructures - Materials for Spinelectronics: New Data Bank RequirementPaata J Kervalishvili0Georgian Technical University - Tbilisi, GeorgiaNanoscience, the interdisciplinary science that draws on physics, chemistry, biology, and computational mathematics, is still in its infancy. Control and manipulation on a nanometric scale allow the fabrication of nanostructures, the properties of which are mainly determined by quantum mechanics and differ considerably from that of the common crystalline state. Nanostructures constructed from inorganic solids such as semiconductors have new electronic and optical properties because of their size and quantization effects [1, 2]. The quantization effects reflect the fundamental characteristics of structures as soon as their size falls below a certain limit. An example of the simplest nanostructure is the quantum dot formed from the energy well of certain semiconductor materials with 5-10nm thickness sandwiched between other semiconductors with normal properties. Quantum dots, for example, have led to important novel technology for lasers, optical sensors, and other electronic devices. The application of nanolayers to data storage, switching, lighting, and other devices can lead to substantially new hardware, for example, energy cells, and eventually to the quantum-based internet. Nanoscience and nanotechnology encompass the development of nano-spinelectronics, spinelectronics materials production, and nano-spinelectronic measuring devices and technologies. Nano-spinelectronics, based on usage of magnetic semiconductors, represents a new and emerging area of science and engineering of the 21st century. It is a primary example of the creation and enhancement of new materials and devices for information technologies, operating with charge and spin degrees of freedom of carriers, free from present-day limitations. This new multi-disciplinary direction of science and technology is very much in need of support from new data banks, which will function as a source of new ideas and approaches.http://datascience.codata.org/articles/531
collection DOAJ
language English
format Article
sources DOAJ
author Paata J Kervalishvili
spellingShingle Paata J Kervalishvili
Semiconductive Nanostructures - Materials for Spinelectronics: New Data Bank Requirement
Data Science Journal
author_facet Paata J Kervalishvili
author_sort Paata J Kervalishvili
title Semiconductive Nanostructures - Materials for Spinelectronics: New Data Bank Requirement
title_short Semiconductive Nanostructures - Materials for Spinelectronics: New Data Bank Requirement
title_full Semiconductive Nanostructures - Materials for Spinelectronics: New Data Bank Requirement
title_fullStr Semiconductive Nanostructures - Materials for Spinelectronics: New Data Bank Requirement
title_full_unstemmed Semiconductive Nanostructures - Materials for Spinelectronics: New Data Bank Requirement
title_sort semiconductive nanostructures - materials for spinelectronics: new data bank requirement
publisher Ubiquity Press
series Data Science Journal
issn 1683-1470
publishDate 2007-12-01
description Nanoscience, the interdisciplinary science that draws on physics, chemistry, biology, and computational mathematics, is still in its infancy. Control and manipulation on a nanometric scale allow the fabrication of nanostructures, the properties of which are mainly determined by quantum mechanics and differ considerably from that of the common crystalline state. Nanostructures constructed from inorganic solids such as semiconductors have new electronic and optical properties because of their size and quantization effects [1, 2]. The quantization effects reflect the fundamental characteristics of structures as soon as their size falls below a certain limit. An example of the simplest nanostructure is the quantum dot formed from the energy well of certain semiconductor materials with 5-10nm thickness sandwiched between other semiconductors with normal properties. Quantum dots, for example, have led to important novel technology for lasers, optical sensors, and other electronic devices. The application of nanolayers to data storage, switching, lighting, and other devices can lead to substantially new hardware, for example, energy cells, and eventually to the quantum-based internet. Nanoscience and nanotechnology encompass the development of nano-spinelectronics, spinelectronics materials production, and nano-spinelectronic measuring devices and technologies. Nano-spinelectronics, based on usage of magnetic semiconductors, represents a new and emerging area of science and engineering of the 21st century. It is a primary example of the creation and enhancement of new materials and devices for information technologies, operating with charge and spin degrees of freedom of carriers, free from present-day limitations. This new multi-disciplinary direction of science and technology is very much in need of support from new data banks, which will function as a source of new ideas and approaches.
url http://datascience.codata.org/articles/531
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