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Catalytic Chemistry of Dimethoxymethane: Carbonylation, Steam Reforming and Partial Oxidation Conference attendances

Language Английский
Participant type Устный
Conference XI International Conference Mechanisms of Catalytic Reactions
07-11 Oct 2019 , Сочи
Authors Badmaev Sukhe Dembrylovich 1 , Pechenkin Alexey Alexandrovich 1 , Paukshtis Eugenii Aleksandrovich 1 , Belyaev Vladimir Dmitrievich 1 , Sobyanin Vladimir Aleksandrovich 1
Affiliations
1 Boreskov Institute of Catalysis SB RAS

Abstract: In recent years, dimethoxymethane (DMM) has attracted a growing interest as an ecologically benign raw material with a wide scope of applications. DMM, as well as methanol and dimethyl ether is an easy to synthesize oxygenated compound of C1 chemistry. It is worth emphasizing that DMM is a noncorrosive, nontoxic compound. The report discusses the features of catalytic processes for the conversion of DMM into hydrogen/syngas and C2-oxygenates. The results indicate: - the possibility of a vapour-phase carbonylation of DMM on a different kind of solid acids. We found that the rate of the reaction increases with the strength of Bronsted acid sites according to the Bronsted-Evans-Polany-Semenov correlation [1]. - the promise of a steam reforming of DMM to hydrogen-rich gas for fuel cell feeding. Bifunctional CuO–ZnO/Al2O3 catalyst containing on its surface both acidic and copper-based sites is active and selective for DMM steam reforming to hydrogen-rich gas with low (<1 vol.%) CO content. The hydrogen-rich gas can be used for direct feeding of high temperature polymer electrolyte membrane fuel cell (HT PEMFC) without any further CO removal [2]. - the feasibility of syngas production by partial oxidation of DMM using supported noble metal catalysts at low temperature. In particular, Pt/CeO2-ZrO2 catalyst provided complete conversion of DMM with high syngas production rate at GHSV = 10000 h-1 and T = 400 °C showing high promises for solid oxide fuel cells (SOFC) [3]. Of course, the use of DMM as a raw material for the production of other products is at an early stage. Further research is needed in this field.
Cite: Badmaev S.D. , Pechenkin A.A. , Paukshtis E.A. , Belyaev V.D. , Sobyanin V.A.
Catalytic Chemistry of Dimethoxymethane: Carbonylation, Steam Reforming and Partial Oxidation
XI International Conference Mechanisms of Catalytic Reactions 07-11 Oct 2019