A novel manganese tungstate nanorod catalyst for the oxidation of styrene with tert-butyl hydroperoxide as oxidant

Catalyst, solvent and process parameters are the keys for the selective oxidation of styrene and other olefins to value added intermediates. Hence MnWO 4 was synthesized by the one-pot hydrothermal method using Pluronic F127 as a surfactant, characterized and evaluated for the oxidation of styrene a...

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Veröffentlicht in:Tungsten 2024-12, Vol.6 (4), p.845-858
Hauptverfasser: Manimaran, Shanmugam, Pandurangan, Arumugam, Govindasamy, Gopalakrishnan
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description Catalyst, solvent and process parameters are the keys for the selective oxidation of styrene and other olefins to value added intermediates. Hence MnWO 4 was synthesized by the one-pot hydrothermal method using Pluronic F127 as a surfactant, characterized and evaluated for the oxidation of styrene and different olefins, using tert-butyl hydroperoxide (TBHP) as oxidant. X-ray diffractogram confirmed the phase purity of MnWO 4 which became further evident from the near surface equimolar proposition of Mn and W in + 2 and + 6 oxidation states, respectively, as inferred from X-ray photoelectron spectra. N 2 sorption followed type IVa isotherm with H 3 hysteresis loop, starting at the relative pressure ( P / P o ) of 0.9, typically of mesoporous materials containing macropores as further confirmed by pore-size distribution. Transmission electron microscope images of MnWO 4 revealed its nanorod morphology. In the absence of catalyst, styrene conversion was 35% with benzaldehyde as the sole product and addition of 75 g of MnWO 4 increased the styrene conversion to 97.3%, and the styrene oxide selectivity from 0% to 85% demonstrated its activity and selectivity. For the maximum conversion and styrene oxide selectivity optimum temperature, styrene: TBHP molar ratio, catalyst amount and solvent were found to be 70 °C, 1:2, 75 mg, and acetonitrile, respectively. MnWO 4 catalyst retained its activity and selectivity for five recycles, confirming its recoverability and reusability. From the kinetic studies, pre-exponential factor and apparent activation energy were found to be 0.206 s −1 and 31.5 kJ·mol −1 , respectively, and a reaction mechanism was proposed. MnWO 4 catalyst was active for oxidation of alkenes, cycloolefins and alkenyl aromatics with high selectivity for epoxides.
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In the absence of catalyst, styrene conversion was 35% with benzaldehyde as the sole product and addition of 75 g of MnWO 4 increased the styrene conversion to 97.3%, and the styrene oxide selectivity from 0% to 85% demonstrated its activity and selectivity. For the maximum conversion and styrene oxide selectivity optimum temperature, styrene: TBHP molar ratio, catalyst amount and solvent were found to be 70 °C, 1:2, 75 mg, and acetonitrile, respectively. MnWO 4 catalyst retained its activity and selectivity for five recycles, confirming its recoverability and reusability. From the kinetic studies, pre-exponential factor and apparent activation energy were found to be 0.206 s −1 and 31.5 kJ·mol −1 , respectively, and a reaction mechanism was proposed. 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In the absence of catalyst, styrene conversion was 35% with benzaldehyde as the sole product and addition of 75 g of MnWO 4 increased the styrene conversion to 97.3%, and the styrene oxide selectivity from 0% to 85% demonstrated its activity and selectivity. For the maximum conversion and styrene oxide selectivity optimum temperature, styrene: TBHP molar ratio, catalyst amount and solvent were found to be 70 °C, 1:2, 75 mg, and acetonitrile, respectively. MnWO 4 catalyst retained its activity and selectivity for five recycles, confirming its recoverability and reusability. From the kinetic studies, pre-exponential factor and apparent activation energy were found to be 0.206 s −1 and 31.5 kJ·mol −1 , respectively, and a reaction mechanism was proposed. 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subjects Acetonitrile
Alkenes
Benzaldehyde
Butyl hydroperoxide
Catalysts
Chemical synthesis
Chemistry and Materials Science
Fourier transforms
Hysteresis loops
Image transmission
Manganese
Materials Engineering
Materials Science
Metal oxides
Metallic Materials
Nanoparticles
Nanorods
Nuclear Chemistry
Original Paper
Oxidation
Oxidizing agents
Particle and Nuclear Physics
Photoelectrons
Poloxamers
Process parameters
Reaction mechanisms
Recoverability
Selectivity
Size distribution
Solvents
Styrenes
Zinc oxides
title A novel manganese tungstate nanorod catalyst for the oxidation of styrene with tert-butyl hydroperoxide as oxidant
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