Abstract: The present disclosure relates to a composition that includes a first oxide that includes zinc, aluminum, and copper; and a metal that includes least one of an alkali metal and/or an alkaline earth metal, where the composition has a first total uptake capacity of CO2 of greater than 218 ?mol CO2/g of composition at a first temperature of about 40° C., a second total uptake capacity of CO2 of greater than 76 ?mol CO2/g of composition at a second temperature of about 300° C., and the composition is capable of converting CO2 to at least one of CO, methane, or methanol, when exposed to H2 at a third temperature greater than the first temperature.

Abstract: The present disclosure relates to a composition that includes a first oxide that includes zinc, aluminum, and copper; and a metal that includes least one of an alkali metal and/or an alkaline earth metal, where the composition has a first total uptake capacity of CO2 of greater than 218 ?mol CO2/g of composition at a first temperature of about 40° C., a second total uptake capacity of CO2 of greater than 76 ?mol CO2/g of composition at a second temperature of about 300° C., and the composition is capable of converting CO2 to at least one of CO, methane, or methanol, when exposed to H2 at a third temperature greater than the first temperature.

Abstract: The present disclosure relates to a method that includes converting a gas stream that contains hydrogen (H2) and carbon monoxide (CO) to a second mixture that contains a hydrocarbon, for example, a hydrocarbon having between 3 and 15 carbon atoms, where the converting is performed using a first catalyst configured to convert H2 and CO to methanol, a second catalyst configured to convert methanol to dimethyl ether (DME), and a third catalyst configured to convert DME to the hydrocarbon.

Abstract: A dehydrogenative coupling process to convert alkanes to longer chain olefins in a single process step is described. The approach described combats the thermodynamics of traditional dehydrogenation by consuming the products as they form. This dehydrogenative coupling reaction may be performed in a single reactor which could enable increased per-pass yield of desirable C8+ olefins compared to a traditional two reactors in a series.

Abstract: The present disclosure relates to a mixture that includes a first portion that includes at least one of a paraffin and/or a naphthene having between 5 carbons and 13 carbons, inclusively, at a first concentration between about 75 wt % and about 99 wt %, and a second portion that includes hydrocarbons having greater than 13 carbons at a second concentration of less than 0.05 wt %.

Abstract: The present disclosure relates to a composition that includes a compound having the structure R1O—(CH2O)n—R2 and a cetane number between about 65 and about 100, where n is between 1 and 10, inclusively, R1 includes a first alkyl group, and R2 includes a second alkyl group.

Abstract: The present disclosure relates to a method for producing a metal carbide, where the method includes thermally treating a molecular precursor in an oxygen-free environment, such that the treating produces the metal carbide and the molecular precursor includes where M is the metal of the metal carbide, N* includes nitrogen or a nitrogen-containing functional group, and x is between zero and six, inclusively.

Abstract: The present disclosure relates to a composition that includes a compound having the structure R1O—(CH2O)n—R2 and a cetane number between about 65 and about 100, where n is between 1 and 10, inclusively, R1 includes a first alkyl group, and R2 includes a second alkyl group.

Abstract: The present disclosure relates to a method that includes converting a gas stream that contains hydrogen (H2) and carbon monoxide (CO) to a second mixture that contains a hydrocarbon, for example, a hydrocarbon having between 3 and 15 carbon atoms, where the converting is performed using a first catalyst configured to convert H2 and CO to methanol, a second catalyst configured to convert methanol to dimethyl ether (DME), and a third catalyst configured to convert DME to the hydrocarbon.

Abstract: The present disclosure relates to a method for producing a metal carbide, where the method includes thermally treating a molecular precursor in an oxygen-free environment, such that the treating produces the metal carbide and the molecular precursor includes where M is the metal of the metal carbide, N* includes nitrogen or a nitrogen-containing functional group, and x is between zero and six, inclusively.

Abstract: The present disclosure relates to a mixture that includes a first portion that includes at least one of a paraffin and/or a naphthene having between 5 carbons and 13 carbons, inclusively, at a first concentration between about 75 wt % and about 99 wt %, and a second portion that includes hydrocarbons having greater than 13 carbons at a second concentration of less than 0.05 wt %.

Abstract: An aspect of the present invention is an electrical device, where the device includes a current collector and a porous active layer electrically connected to the current collector to form an electrode. The porous active layer includes MgBx particles, where x?1, mixed with a conductive additive and a binder additive to form empty interstitial spaces between the MgBx particles, the conductive additive, and the binder additive. The MgBx particles include a plurality of boron sheets of boron atoms covalently bound together, with a plurality of magnesium atoms reversibly intercalated between the boron sheets and ionically bound to the boron atoms.

Abstract: An aspect of the present disclosure is a method that includes contacting an oxygenated compound and hydrogen (H2) with a solid catalyst, where the solid catalyst includes a metal carbide that includes a first transition metal, and the contacting converts at least a portion of the oxygenated compound to a deoxygenated compound. In some embodiments of the present disclosure, the metal carbide may include at least one of Mo2C and/or W2C.

Abstract: An aspect of the present disclosure is a method that includes contacting an oxygenated compound and hydrogen (H2) with a solid catalyst, where the solid catalyst includes a metal carbide that includes a first transition metal, and the contacting converts at least a portion of the oxygenated compound to a deoxygenated compound. In some embodiments of the present disclosure, the metal carbide may include at least one of Mo2C and/or W2C.

Abstract: An aspect of the present invention is an electrical device, where the device includes a current collector and a porous active layer electrically connected to the current collector to form an electrode. The porous active layer includes MgBx particles, where x?1, mixed with a conductive additive and a binder additive to form empty interstitial spaces between the MgBx particles, the conductive additive, and the binder additive. The MgBx particles include a plurality of boron sheets of boron atoms covalently bound together, with a plurality of magnesium atoms reversibly intercalated between the boron sheets and ionically bound to the boron atoms.

Abstract: An aspect of the present invention is an electrical device, where the device includes a current collector and a porous active layer electrically connected to the current collector to form an electrode. The porous active layer includes MgBx particles, where x?1, mixed with a conductive additive and a binder additive to form empty interstitial spaces between the MgBx particles, the conductive additive, and the binder additive. The MgBx particles include a plurality of boron sheets of boron atoms covalently bound together, with a plurality of magnesium atoms reversibly intercalated between the boron sheets and ionically bound to the boron atoms.

Abstract: An aspect of the present invention is an electrical device, where the device includes a current collector and a porous active layer electrically connected to the current collector to form an electrode. The porous active layer includes MgBx particles, where x?1, mixed with a conductive additive and a binder additive to form empty interstitial spaces between the MgBx particles, the conductive additive, and the binder additive. The MgBx particles include a plurality of boron sheets of boron atoms covalently bound together, with a plurality of magnesium atoms reversibly intercalated between the boron sheets and ionically bound to the boron atoms.