Abstract: A method for providing a two dimensional spatially varying surface potential on a surface of a conductive substrate and use thereof. The method comprises providing a conductive substrate having a first conductive surface and comprising an array of “n” electrical potential contact points spatially arranged in two dimensions on the first conductive surface, wherein “n” is at least 3. An electrical potential is then applied to each of the “n” electrical contact points, wherein the electrical potentials applied to at least two of the “n” electrical potential contact points are different. Also disclosed are methods and applications for use of the methods disclosed herein.

Abstract: An electrolyte system having a conductive salt dispersed in a solvent mixture, the solvent mixture having an organic nitrile solvent and a co-solvent. The concentration of the conductive salt in the electrolyte system is 1.25 molar to 3.0 molar.

Abstract: A method for providing a two dimensional spatially varying surface potential on a surface of a conductive substrate and use thereof. The method comprises providing a conductive substrate having a first conductive surface and comprising an array of“n” electrical potential contact points spatially arranged in two dimensions on the first conductive surface, wherein “n” is at least 3. An electrical potential is then applied to each of the “n” electrical contact points, wherein the electrical potentials applied to at least two of the “n” electrical potential contact points are different. Also disclosed are methods and applications for use of the methods disclosed herein.

Abstract: The disclosure relates to metal oxide materials with varied nanostructural morphologies. More specifically, the disclosure relates to zinc oxide and cobalt oxide nanostructures with varied morphologies. The disclosure further relates to methods of making such metal oxide nanostructures.

Abstract: Electrochemical methods for making titanium oxide (TiO2) nanostructures are described. The morphology of the nanostructures can be manipulated by controlling reaction parameters, for example, solution composition, applied voltage, and time. The methods can be used at ambient conditions, for example, room temperature and atmospheric pressure and use moderate electric potentials. The methods are scalable with a high degree of controllability and reproducibility.

Abstract: A method for producing a halogenated activated carbon material includes heating a natural, non-lignocellulosic carbon precursor in an inert or reducing atmosphere to form a first carbon material, mixing the first carbon material with an inorganic compound to form a mixture, heating the mixture in an inert or reducing atmosphere to incorporate the inorganic compound into the first carbon material, removing the inorganic compound from the first carbon material to produce an activated carbon material, and treating the activated carbon material with a halogen source to form a halogenated activated carbon material. The halogenated activated carbon material is suitable to form improved carbon-based electrodes for use in high energy density devices.

Abstract: A method for producing a halogenated activated carbon material includes heating a natural, non-lignocellulosic carbon precursor in an inert or reducing atmosphere to form a first carbon material, mixing the first carbon material with an inorganic compound to form a mixture, heating the mixture in an inert or reducing atmosphere to incorporate the inorganic compound into the first carbon material, removing the inorganic compound from the first carbon material to produce an activated carbon material, and treating the activated carbon material with a halogen source to form a halogenated activated carbon material. The halogenated activated carbon material is suitable to form improved carbon-based electrodes for use in high energy density devices.

Abstract: The disclosure relates to packaging for electrochemically active materials comprising a housing comprising at least one active coating, devices made therefrom, and methods of making the same.

Abstract: A device having a first electrode, a second electrode, a separator positioned between the first electrode and the second electrode, and an electrolyte incorporated throughout the first electrode, the second electrode, and the separator. The electrolyte includes one or more lithium salts and one or more solvents. The first electrode and second electrodes comprise a majority of activated carbon having a microporous pore size distribution.

Abstract: Methods for stripping partially oxidized nitride wear or release coatings from metal workpieces comprise disrupting surface oxidation layers present on the coatings following use, and causing electrical current to flow from the workpiece and release coating to a counter electrode while the workpiece, release coating and counter electrode are immersed in an aqueous alkaline electrolyte solution.

Abstract: An electric double layer capacitor composite electrode includes a current collector having opposing major surfaces, first and second conductive layers formed over respective ones of the major surfaces, and first and second carbon-based layers formed over the first and second conductive layers.

Abstract: The disclosure relates to metal materials with varied nanostructural morphologies. More specifically, the disclosure relates to niobium nanostructures with varied morphologies. The disclosure further relates to methods of making such metal nanostructures.

Abstract: The disclosure relates to metal oxide materials with varied nanostructural morphologies. More specifically, the disclosure relates to zinc oxide and cobalt oxide nanostructures with varied morphologies. The disclosure further relates to methods of making such metal oxide nanostructures.

Abstract: Electrochemical methods for making nanostructures, for example, titanium oxide (TiO2) nanostructures are described. The morphology of the nanostructures can be manipulated by controlling reaction parameters, for example, solution composition, applied voltage, and time. The methods can be used at ambient conditions, for example, room temperature and atmospheric pressure and use moderate electric potentials. The methods are scalable with a high degree of controllability and reproducibility.

Abstract: Electrochemical methods for making titanium oxide (TiO2) nanostructures are described. The morphology of the nanostructures can be manipulated by controlling reaction parameters, for example, solution composition, applied voltage, and time. The methods can be used at ambient conditions, for example, room temperature and atmospheric pressure and use moderate electric potentials. The methods are scalable with a high degree of controllability and reproducibility.

Abstract: A method for providing a two dimensional spatially varying surface potential on a surface of a conductive substrate and use thereof. The method comprises providing a conductive substrate having a first conductive surface and comprising an array of“n” electrical potential contact points spatially arranged in two dimensions on the first conductive surface, wherein “n” is at least 3. An electrical potential is then applied to each of the “n” electrical contact points, wherein the electrical potentials applied to at least two of the “n” electrical potential contact points are different. Also disclosed are methods and applications for use of the methods disclosed herein.