Possible domestication of uranium oxides using biological assistance reduction

Uranium has been defined in material research engineering field as one of the most energetic radioactive elements in the entire Mendeleev periodic table. The manipulation of uranium needs higher theories and sophisticated apparatus even in nuclear energy extraction or in many other chemical applicat...

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Main Author: Slah Hidouri
Format: Article
Language:English
Published: Elsevier 2017-01-01
Series:Saudi Journal of Biological Sciences
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S1319562X15002053
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spelling doaj-05f131e52e2b42ba9533a5d323c26c372020-11-24T23:47:00ZengElsevierSaudi Journal of Biological Sciences1319-562X2017-01-0124111010.1016/j.sjbs.2015.09.010Possible domestication of uranium oxides using biological assistance reductionSlah HidouriUranium has been defined in material research engineering field as one of the most energetic radioactive elements in the entire Mendeleev periodic table. The manipulation of uranium needs higher theories and sophisticated apparatus even in nuclear energy extraction or in many other chemical applications. Above the nuclear exploitation level, the chemical conventional approaches used, require a higher temperature and pressure to control the destination of ionic form. However, it has been discovered later that at biological scale, the manipulation of this actinide is possible under friendly conditions. The review summarizes the relevant properties of uranium element and a brief characterization of nanoparticles, based on some structural techniques. These techniques reveal the common link between chemical approaches and biological assistance in nanoparticles. Also, those biological entities have been able to get it after reduction. Uranium is known for its ability to destroy ductile materials. So, if biological cell can really reduce uranium, then how does it work?http://www.sciencedirect.com/science/article/pii/S1319562X15002053UraniumNanoparticlesBio-respiration interventionBio-reductionStructural characterization
collection DOAJ
language English
format Article
sources DOAJ
author Slah Hidouri
spellingShingle Slah Hidouri
Possible domestication of uranium oxides using biological assistance reduction
Saudi Journal of Biological Sciences
Uranium
Nanoparticles
Bio-respiration intervention
Bio-reduction
Structural characterization
author_facet Slah Hidouri
author_sort Slah Hidouri
title Possible domestication of uranium oxides using biological assistance reduction
title_short Possible domestication of uranium oxides using biological assistance reduction
title_full Possible domestication of uranium oxides using biological assistance reduction
title_fullStr Possible domestication of uranium oxides using biological assistance reduction
title_full_unstemmed Possible domestication of uranium oxides using biological assistance reduction
title_sort possible domestication of uranium oxides using biological assistance reduction
publisher Elsevier
series Saudi Journal of Biological Sciences
issn 1319-562X
publishDate 2017-01-01
description Uranium has been defined in material research engineering field as one of the most energetic radioactive elements in the entire Mendeleev periodic table. The manipulation of uranium needs higher theories and sophisticated apparatus even in nuclear energy extraction or in many other chemical applications. Above the nuclear exploitation level, the chemical conventional approaches used, require a higher temperature and pressure to control the destination of ionic form. However, it has been discovered later that at biological scale, the manipulation of this actinide is possible under friendly conditions. The review summarizes the relevant properties of uranium element and a brief characterization of nanoparticles, based on some structural techniques. These techniques reveal the common link between chemical approaches and biological assistance in nanoparticles. Also, those biological entities have been able to get it after reduction. Uranium is known for its ability to destroy ductile materials. So, if biological cell can really reduce uranium, then how does it work?
topic Uranium
Nanoparticles
Bio-respiration intervention
Bio-reduction
Structural characterization
url http://www.sciencedirect.com/science/article/pii/S1319562X15002053
work_keys_str_mv AT slahhidouri possibledomesticationofuraniumoxidesusingbiologicalassistancereduction
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