Bifunctional Effects of MoO3/S-ZrO2 and Mo2C/S-ZrO2 Catalysts in Transesterification of Groundnut Oil

Successful doping via impregnation and carburization under CH4/H2 atmosphere were respectively employed to achieve the formation of MoO3/S-ZrO2 and Mo2C/S-ZrO2 catalysts. The synthesis of both materials was confirmed as illustrated by the binding energies associated with XPS spectra of C1s, Mo 3p and Mo 3d states. In addition to compatible BET surface areas of 120 and 97m2g-1, both catalysts were found to exhibit appreciable densities of surface Mo species as revealed by the N2-adsorption data. These species enhanced catalytic activity and prompted the catalyst to exhibit bifunctional properties during transesterification of groundnut oil. When compared with the support system (i.e. S-ZrO2), the overall catalytic performance at 60oC, 0.5g of catalyst and 1:6 (oil: methanol) followed the trend S-ZrO2 < MoO3/S-ZrO2 < Mo2C/S-ZrO2. Another appreciable result is the conformity of the derived biodiesel with international specifications approved by ASTM for B100 and other fuel grades of methyl esters.

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Publication Details

Journal
International Journal of Science for Global Sustainability
Published
2024-10-16
DOI
https://doi.org/10.57233/ijsgs.v10i3.692
Primary Topic
Biodiesel Production and Applications
Type
article
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article

Bifunctional Effects of MoO3/S-ZrO2 and Mo2C/S-ZrO2 Catalysts in Transesterification of Groundnut Oil

Ahmad Galadima
International Journal of Science for Global Sustainability
Biodiesel Production and Applications
article

Bifunctional Effects of MoO3/S-ZrO2 and Mo2C/S-ZrO2 Catalysts in Transesterification of Groundnut Oil

Ahmad Galadima
article en

Abstract

Successful doping via impregnation and carburization under CH4/H2 atmosphere were respectively employed to achieve the formation of MoO3/S-ZrO2 and Mo2C/S-ZrO2 catalysts. The synthesis of both materials was confirmed as illustrated by the binding energies associated with XPS spectra of C1s, Mo 3p and Mo 3d states. In addition to compatible BET surface areas of 120 and 97m2g-1, both catalysts were found to exhibit appreciable densities of surface Mo species as revealed by the N2-adsorption data. These species enhanced catalytic activity and prompted the catalyst to exhibit bifunctional properties during transesterification of groundnut oil. When compared with the support system (i.e. S-ZrO2), the overall catalytic performance at 60oC, 0.5g of catalyst and 1:6 (oil: methanol) followed the trend S-ZrO2 < MoO3/S-ZrO2 < Mo2C/S-ZrO2. Another appreciable result is the conformity of the derived biodiesel with international specifications approved by ASTM for B100 and other fuel grades of methyl esters.

International Journal of Science for Global SustainabilityVol. 10(3)
Federal Medical Centre (NG), Federal University Gusau
Responsible consumption and production
Openalex Percentile: Top 77%
Biodiesel Production and Applications
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Bifunctional Effects of MoO3/S-ZrO2 and Mo2C/S-ZrO2 Catalysts in Transesterification of Groundnut Oil — Ahmad Galadima · International Journal of Science for Global Sustainability (2024) | TGRS Research Map | TGRS