Oxidative dehydrogenation of n-octane over Mg-containing SBA-15 material
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In this study, it is proposed the incorporation of MgO into of SBA-15 via the direct synthesis different atomic ratios of Si/Mg (20, 40 and 80). Although the incorporation of Mg did not affect the mesoporous character of SBA-based materials, it was found dramatic changes in the SBA-15 characteristic honeycomb structure even after the incorporation of small amount of Mg. The creation of more basic sites in SBA-15, because of the addition of Mg, improved ODH conversion of n-octane with respect to SBA-15, used as reference. Sample with a Si/Mg molar ratio of 20 showed the best catalytic performance in the oxidative dehydrogenation of n-octane, while the sample with a Si/Mg molar ratio of 40 achieve the highest productions of olefins. © 2017 Informa UK Limited, trading as Taylor %26 Francis Group.
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In this study, it is proposed the incorporation of MgO into of SBA-15 via the direct synthesis different atomic ratios of Si/Mg (20, 40 and 80). Although the incorporation of Mg did not affect the mesoporous character of SBA-based materials, it was found dramatic changes in the SBA-15 characteristic honeycomb structure even after the incorporation of small amount of Mg. The creation of more basic sites in SBA-15, because of the addition of Mg, improved ODH conversion of n-octane with respect to SBA-15, used as reference. Sample with a Si/Mg molar ratio of 20 showed the best catalytic performance in the oxidative dehydrogenation of n-octane, while the sample with a Si/Mg molar ratio of 40 achieve the highest productions of olefins. © 2017 Informa UK Limited, trading as Taylor & Francis Group.
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Mesoporous silica SBA-15; Mg-SBA-15; oxidative dehydrogenation of n-octane Honeycomb structures; Magnesia; Mesoporous materials; Silica; Atomic ratio; Basic sites; Catalytic performance; Direct synthesis; Mesoporous Silica; N-octanes; Oxidative dehydrogenations; SBA-15 materials; Dehydrogenation
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