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Investigating inhibition of microbes inducing microbiologically-influenced-corrosion by Tectona grandis based Fe-nanoparticle material

Okeniyi, Joshua Olusegun and Omotosho, Olugbenga Adeshola and Inyang, Michael Anietie and Okeniyi, Elizabeth Toyin and Nwaokorie, Ikechi Thaddeus and Adidi, Emmanuel Amanogho and Owoeye, Taiwo Felicia and Nwakudu, Kelechukwu Chinedu and Akinlabu, Deborah Kehinde and Gabriel, Olanrewaju Oyewale and Taiwo, Olugbenga Samson and Awotoye, Olufisayo Adebola (2017) Investigating inhibition of microbes inducing microbiologically-influenced-corrosion by Tectona grandis based Fe-nanoparticle material. In: The International Conference on Technologies and Materials for Renewable Energy, Environment and Sustainability, TMREES16-Paris, 15–18 Nov 2016, Paris, France.

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Abstract

In this paper, inhibition of microbes inducing microbiologically-influenced-corrosion (MIC) of metals by Tectona grandis based Fe (iron) Nanoparticle material was investigated. For this, extract was obtained from the leaf of Tectona grandis and this was employed as precursor for synthesizing the Fe-nanoparticle material. From this, the synthesized plant extract based nanoparticle material was characterized using scanning electron microscopy and energy dispersive spectroscopy (SEM+EDS) instrument. The developed Fe bio-nanoparticle material was then employed for sensitivity and/or resistance study application against different strains of microbes that are known to induce microbiologically-influenced-corrosion, in metallic materials, and for this, microbial growth inhibition effect was compared with that from a commercial antibiotic employed as control. Results showed that the Tectona grandis based Fe-nanoparticle exhibited good inhibition effects on the growth of many of the MIC inducing microbes investigated. Sensitivity measures of zone of inhibition against the growth of MIC inducing microbial strains either outperformed or compares well with that obtained from the commercial antibiotic control, in the study. These results indicate positive prospect on the suitability of Fe bio-nanoparticle for corrosion inhibition applications for the protection of metals against microbiological corrosion influencing environment.

Item Type: Conference or Workshop Item (Paper)
Subjects: Q Science > Q Science (General)
Q Science > QC Physics
Q Science > QD Chemistry
Q Science > QK Botany
Q Science > QR Microbiology
S Agriculture > S Agriculture (General)
T Technology > T Technology (General)
T Technology > TD Environmental technology. Sanitary engineering
T Technology > TP Chemical technology
Divisions: Faculty of Engineering, Science and Mathematics > School of Chemistry
Faculty of Engineering, Science and Mathematics > School of Engineering Sciences
Faculty of Engineering, Science and Mathematics > School of Physics
Faculty of Medicine, Health and Life Sciences > School of Biological Sciences
Depositing User: Dr Joshua Olusegun Okeniyi
Date Deposited: 28 Aug 2017 04:07
Last Modified: 28 Aug 2017 04:07
URI: http://eprints.covenantuniversity.edu.ng/id/eprint/8746

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