Abstract: The invention relates to a catalytic module including a solid support and a stack including at least the following layers arranged in the following order, taking the solid support as a base: a first porous layer containing CeO2 and deposited by chemical vapour deposition, and a first catalytic layer containing at least one metal and/or at least one alloy of metals.

Abstract: A device for catalytic conversion of NOx to 8 and/or of CO to CO2, including: a ceramic support including at least a plurality of channels; a thermal barrier made of thermal insulating material covering at least one part of the internal surface of the channels; porous SiC at least partially covering the thermal barrier such that the SiC is separated from the support by the thermal barrier; one or more conversion catalysts at least on the SiC.

Abstract: A device for catalytic conversion of NOx to 8 and/or of CO to CO2, including: a ceramic support including at least a plurality of channels; a thermal barrier made of thermal insulating material covering at least one part of the internal surface of the channels; porous SiC at least partially covering the thermal barrier such that the SiC is separated from the support by the thermal barrier; one or more conversion catalysts at least on the SiC.

Abstract: A catalytic module, containing a solid support, and a stack including at least the following layers arranged in the following order, taking the solid support as a base: a first porous layer containing CeO2 and deposited by chemical vapour deposition, a first catalytic layer containing at least one metal and/or at least one alloy of metals selected from, for example, Pt, Pd, Rh.

Abstract: A device for vapor deposition of chemical species on support grains of spherical or similar shape disposed in a fluidized bed. The device includes a first chamber including a fluidized bed in which a funnel-shaped fluidizer element is housed to receive support grains of spherical or similar shape; a second chamber in fluid flow connection with the first chamber to deliver precursors in a vapor phase of chemical species to be deposited on the support grains and to convey a fluidizing gas towards the first chamber; and a flute at an inlet to the fluidizer element to control distribution of the vapor phase precursors and the fluidizing gas within the fluidizer element. The distributor flute includes one or more outer grooves, each groove including a first portion oriented along the longitudinal axis of the flute and a second portion winding helically around the axis to generate a fluidizing gas vortex within the first chamber.

Abstract: The present invention relates to the use, as a precursor for the chemical vapour deposition of PtSi at the surface of a support, of at least one organometallic complex of Pt comprising at least:—a ligand having a cyclic structure that comprises at least two non-adjacent C?C double bonds, or two ligands having a cyclic structure that each comprise a C?C double bond; and—a ligand chosen from *O—Si(R)3 and *N—(Si(R)3)2, with: the R units being chosen, independently of one another, from (C1-C4)alkoxy groups; the R? units being chosen, independently of one another, from (C1-C4)alkyl and (C3-C4)cycloalkyl groups; and * representing the coordination of the ligand to the platinum.

Abstract: The invention relates to an assembly comprising a current collector and a silicon electrode, wherein the current collector and the electrode are connected together via at least one of the surfaces thereof by an elastic polymer layer. The invention can be used in the field of lithium batteries.

Abstract: The invention relates to a method for manufacturing an electrolyte for an SOFC battery comprising a CVD (chemical vapor deposition) deposition step, on a substrate, of a stack of at least three layers of materials YSZ/X/YSZ, X being a different material than YSZ.

Abstract: A method and a device for infiltration of a structure made of a porous material by chemical vapor deposition. According to the method, a first face of the porous material structure is exposed to a gaseous flow, and the second face is maintained at least partially free from any contact.

Abstract: The invention relates to a method for manufacturing an electrolyte for an SOFC battery comprising a CVD (chemical vapour deposition) deposition step, on a substrate, of a stack of at least three layers of materials YSZ/X/YSZ, X being a different material than YSZ.

Abstract: A device for vapor deposition of chemical species on support grains of spherical or similar shape disposed in a fluidized bed. The device includes a first chamber including a fluidized bed in which a funnel-shaped fluidizer element is housed to receive support grains of spherical or similar shape; a second chamber in fluid flow connection with the first chamber to deliver precursors in a vapor phase of chemical species to be deposited on the support grains and to convey a fluidizing gas towards the first chamber; and a flute at an inlet to the fluidizer element to control distribution of the vapor phase precursors and the fluidizing gas within the fluidizer element. The distributor flute includes one or more outer grooves, each groove including a first portion oriented along the longitudinal axis of the flute and a second portion winding helically around the axis to generate a fluidizing gas vortex within the first chamber.

Abstract: A method and a device for infiltration of a structure made of a porous material by chemical vapor deposition. According to the method, a first face of the porous material structure is exposed to a gaseous flow, and the second face is maintained at least partially free from any contact.

Abstract: Method for preparing a substrate comprising a solid support and a plurality of layers on the support; at least one layer consisting of a uniform, homogeneous, and continuous film of particles of one or more metal oxide(s), or of uniformly, homogeneously, dispersed particles of one or more metal oxide(s), on the support or on an underlying layer; at least one layer consisting of a continuous or discontinuous film of one or more metal(s) or of one or more metal alloy(s), or of dispersed nanoparticles of one or more metal(s) or of one or more metal alloy(s), on the support or on an underlying layer; the method comprising the following steps: a)—impregnating the heated solid support or an already deposited underlying layer with a solution of precursors of the metal oxide or oxides in a supercritical fluid, and depositing a uniform, homogeneous, and continuous film of particles of one or more metal oxide(s), or of uniformly, homogeneously, dispersed particles of one or more metal oxide(s), on the support or on the