Iron copper zeolite (Fe-Cu-ZSM-5) with aqueous hydrogen peroxide is active for the selective oxidation of methane to methanol. Iron is involved in the activation of the carbon–hydrogen bond, while copper allows methanol to form as the major product. The catalyst is stable, re-usable and activates methane giving >90 % methanol selectivity and 10 % conversion in a closed catalytic cycle (see scheme)
Direct catalytic methanol production from methane is achieved on Cu-SSZ-13 zeolite catalysts using N...
The direct partial oxidation of methane has been a long sought-after approach to utilize natural gas...
Conspectus Methane represents one of the most abundant carbon sources for fuel or chemical productio...
Iron copper zeolite (Fe-Cu-ZSM-5) with aqueous hydrogen peroxide is active for the selective oxidati...
The development of a catalytic, one-step route for the oxidation of methane to methanol remains one ...
The development of a catalytic, one-step route for the oxidation of methane to methanol remains one ...
Recently, we reported a novel, low temperature route for the selective and catalyticoxidation of met...
The partial oxidation of methane to methanol presents one of the most challenging targets in catalys...
The selective oxidation of methane into methanol is of paramount importance but poses significant ch...
ConspectusMethane represents one of the most abundant carbon sources for fuel or chemical production...
We report herein that Cu-ZSM-5 is an effective catalyst for methane oxidation with hydrogen peroxide...
This work investigated the development of a material and system suitable for direct low temperature ...
The conversion of methane to value-added liquid chemicals is a promising answer to the imminent dema...
Fe- and Cu-containing zeolites have recently been shown to be efficient catalysts for the one-step s...
Fe and Cu-containing zeolites have recently been shown to be efficient catalysts for the one-step se...
Direct catalytic methanol production from methane is achieved on Cu-SSZ-13 zeolite catalysts using N...
The direct partial oxidation of methane has been a long sought-after approach to utilize natural gas...
Conspectus Methane represents one of the most abundant carbon sources for fuel or chemical productio...
Iron copper zeolite (Fe-Cu-ZSM-5) with aqueous hydrogen peroxide is active for the selective oxidati...
The development of a catalytic, one-step route for the oxidation of methane to methanol remains one ...
The development of a catalytic, one-step route for the oxidation of methane to methanol remains one ...
Recently, we reported a novel, low temperature route for the selective and catalyticoxidation of met...
The partial oxidation of methane to methanol presents one of the most challenging targets in catalys...
The selective oxidation of methane into methanol is of paramount importance but poses significant ch...
ConspectusMethane represents one of the most abundant carbon sources for fuel or chemical production...
We report herein that Cu-ZSM-5 is an effective catalyst for methane oxidation with hydrogen peroxide...
This work investigated the development of a material and system suitable for direct low temperature ...
The conversion of methane to value-added liquid chemicals is a promising answer to the imminent dema...
Fe- and Cu-containing zeolites have recently been shown to be efficient catalysts for the one-step s...
Fe and Cu-containing zeolites have recently been shown to be efficient catalysts for the one-step se...
Direct catalytic methanol production from methane is achieved on Cu-SSZ-13 zeolite catalysts using N...
The direct partial oxidation of methane has been a long sought-after approach to utilize natural gas...
Conspectus Methane represents one of the most abundant carbon sources for fuel or chemical productio...