Abstract: A process is for manufacturing a complex motor vehicle glazing including a glass pane, an elastomer seal and a metal insert overmolded by the elastomer seal. The process includes inserting an edge of a glass pane and a metal insert into an encapsulation mold forming a leaktight cavity around the edge of the glass pane, filling the leaktight cavity containing the edge of the glass pane and the metal insert, by injecting an encapsulation composition including a polypropylene (PP)/thermoplastic elastomer (TPE) compound in the molten state, cooling the encapsulation composition to form an elastomer seal in which the metal insert is integrated, and releasing the elastomer seal from the mold. The PP/TPE compound includes from 30% to 80% by weight of polypropylene (PP) and the metal insert is covered over its entire surface liable to come into contact with the encapsulation composition, with a polypropylene coating.

Abstract: A process is for manufacturing a complex motor vehicle glazing including a glass pane, an elastomer seal and a metal insert overmolded by the elastomer seal. The process includes inserting an edge of a glass pane and a metal insert into an encapsulation mold forming a leaktight cavity around the edge of the glass pane, filling the leaktight cavity containing the edge of the glass pane and the metal insert, by injecting an encapsulation composition including a polypropylene (PP)/thermoplastic elastomer (TPE) compound in the molten state, cooling the encapsulation composition to form an elastomer seal in which the metal insert is integrated, and releasing the elastomer seal from the mold. The PP/TPE compound includes from 30% to 80% by weight of polypropylene (PP) and the metal insert is covered over its entire surface liable to come into contact with the encapsulation composition, with a polypropylene coating.

Abstract: An illuminating glazing unit includes a first sheet having a first main face, a second main face and an edge face; a second sheet having a first main face, a second main face and an edge face; a lamination interlayer having an extent smaller than that of each of the glass sheets and defining a space between the edge of the second main face of the first sheet and the edge of the first main face of the second sheet; a strip of LEDs, including a printed circuit board and a plurality of LEDs, positioned so that the emitting faces of the LEDs face the edge face of the first sheet; and an encapsulating element made of an opaque polymer encapsulating at least the edge face of the second sheet and the LED strip. The PCB bears against the first main face of the second glass sheet with a plurality of spacers and the space is filled by the opaque polymer.

Abstract: A luminous glazing unit including at least one substrate formed by a transparent glazing element; at least one light source; and at least one light extraction device for extracting the light, the extraction device being arranged to create a luminous region, the extraction device being formed by at least one fibrous layer.

Abstract: An illuminating glazing unit includes a first sheet having a first main face, a second main face and an edge face; a second sheet having a first main face, a second main face and an edge face; a lamination interlayer having an extent smaller than that of each of the glass sheets and defining a space between the edge of the second main face of the first sheet and the edge of the first main face of the second sheet; a strip of LEDs, including a printed circuit board and a plurality of LEDs, positioned so that the emitting faces of the LEDs face the edge face of the first sheet; and an encapsulating element made of an opaque polymer encapsulating at least the edge face of the second sheet and the LED strip. The PCB bears against the first main face of the second glass sheet with a plurality of spacers and the space is filled by the opaque polymer.

Abstract: A module includes light-emitting diodes, with a printed circuit board bearing light-emitting diodes connected by a series-parallel electrical circuit including a number of circuit branches powered by a common electrical power supply, each branch including two peripheral diodes and optionally at least one internal diode. At least one of the multidiode branches includes at least one reference internal diode, the two diodes closest the reference diode belonging to a branch or branches other than said multidiode branch and/or at least one of the two-diode branches includes two reference peripheral diodes and has, as the closest diode on the printed circuit board, a diode belonging to a branch other than the two-diode branch.

Abstract: A luminous glazing unit including at least one substrate formed by a transparent glazing element; at least one light source; and at least one light extraction device for extracting the light, the extraction device being arranged to create a luminous region, the extraction device being formed by at least one fibrous layer.

Abstract: This electrolyte material for an electrically controllable device having variable optical/energy properties is in the form of a self-supported layer intended to be placed between two layers of electroactive material, and comprises or consists of a matrix which is capable of maintaining the mechanical strength thereof and in which are inserted ionic charges capable of allowing, under the action of a current, oxidation and reduction reactions in adjacent layers of electroactive material. The ionic charges are within the matrix in the solubilized state, solubilized by a solubilization liquid (L). The matrix is chosen to provide the percolation pathway for the ionic charges.

Abstract: An electroactive material, in the form of a self-supported layer, comprising: a matrix, which maintains the mechanical strength of the electroactive material; and an electroactive system, which is inserted in the matrix and comprises an electroactive organic compound (ea1+), an electroactive organic compound (ea2), a solubilization liquid (L), and ionic charges present as ionic salt or acid, wherein the electroactive compounds (ea1+ & ea2) and the ionic charges are in the solubilization liquid (L), wherein the matrix comprises a textile sheet (TS) or on a stack of sheets comprising the textile sheet (TS), and wherein the mineral fibers of the matrix and the solubilization liquid (L) have indices that are substantially equal, with a difference of at most 0.1. In addition, an electrically controllable device having variable optical properties, comprising the electroactive material.

Abstract: A device including a multilayer stack of: a first substrate having a glass function; a first electronically conductive layer with an associated current lead; an electroactive system; a second electronically conductive layer with an associated current lead; and a second substrate having a glass function. Each of the electronically conductive layers has a resistance per unit area enabling it to have an equipotential surface in coloring mode and bleaching mode, and each having a variable resistance that gradually decreases from the periphery toward the interior of the electrically controllable device by choosing the resistance at the center of the glazing, in the zone or zones furthest away from the current leads, so that the ohmic drop over the central surface of the substrates of the glazing, in the zone or zones furthest away from the current leads, is at most equal to 5% of the voltage applied across the terminals of the device.

Abstract: Multi-layer polyelectrolyte membranes are described wherein at least one of the layers contains at least one acrylic resin or vinyl resin having at least one ionic or ionizable group, and at least one additional polymer. The polymer has small or large domain sizes with respect to the acrylic resin or vinyl resin that is present in one or more layers. The polymer preferably has improved conductivity when formed into a film. The membranes are useful in batteries, fuel cells, and the like.

Abstract: This device comprises the following stack of layers: a first substrate having a glass function (V1); a first electronically conductive layer (TCC1) with an associated current feed; an electroactive system (EA); a second electronically conductive layer (TCC2) with an associated current feed; and a second substrate having a glass function (V2). Each current feed is constituted by a continuous conductive strip (1-1a; 2-2a) applied to the associated electronically conductive layer, said conductive strip being positioned over the entire perimeter or substantially over the entire perimeter of said layer (TCC1; TCC2) so as to strengthen the conductivity thereof and being connected to the electrical power supply via one of its ends.

Abstract: This device comprises the following stack of layers: a substrate having a glass function (V1); a first electronically conductive layer (TCC1) with an associated current feed; a layer of electroactive varnish (VEA) based on at least one binder polymer containing the constituents of an electroactive medium that are formed by: at least one electroactive organic compound capable of being reduced and/or of accepting electrons and cations acting as compensation charges; at least one electroactive organic compound capable of being oxidized and/or of ejecting electrons and cations acting as compensation charges; at least one of said electroactive organic compounds being electrochromic in order to obtain a color contrast; and ionic charges capable of allowing, under an electric current, oxidation and reduction reactions of said electroactive organic compounds, which reactions are necessary to obtain the color contrast; and a second electronically conductive layer (TCC2) with an associated current feed.

Abstract: Provided is an electrochromic device (ECD) that includes: a first transparent electrode having a first substrate having thereon a first electrically conductive layer; a second transparent electrode having a second substrate having thereon a second electrically conductive layer; a first polymeric layer on the first transparent electrode, wherein the first polymeric layer includes a cathodic electrochromic polymer and a first non-electrochromic polymeric matrix; a second polymeric layer on the second transparent electrode, wherein the second polymeric layer includes an anodic electrochromic polymer and a second non-electrochromic polymeric matrix; and an electrolyte layer disposed between the first polymeric layer and the second polymeric layer. Also provided is a process of producing the ECDs, as well as the electrochromic layers themselves.

Abstract: This electroactive material comprises a self-supporting polymer matrix, inserted into which is an electroactive system comprising or constituted by: at least one electroactive organic compound capable of being reduced and/or of accepting electrons and cations acting as compensation charges; at least one electroactive organic compound capable of being oxidized and/or of ejecting electrons and cations acting as compensation charges; at least one of said aforementioned electroactive organic compounds being electrochromic in order to obtain a color contrast, ionic charges; and also a solubilization liquid for said electroactive system, said liquid not dissolving said self-supporting polymer matrix, the latter being chosen to provide a percolation pathway for ionic charges, this allowing, under the action of a dielectric current, oxidation and reduction reactions of said electroactive organic compounds, which reactions are necessary to obtain a color contrast.

Abstract: Electrochemical system comprising at least one substrate of organic nature, at least one electronically conductive layer and at least one active species, characterized in that it includes at least one organic layer lying between the electronically conductive layer and the substrate.

Abstract: This semi-electroactive material comprises a self-supporting polymer matrix, inserted into which is an electroactive system comprising or constituted by: at least one electroactive organic compound capable of being oxidized and/or of ejecting electrons and cations acting as compensation charges; or at least one electroactive organic compound capable of being reduced and/or of accepting electrons and cations acting as compensation charges; and ionic charges; and also a solubilization liquid for said semi-electroactive system, said liquid not dissolving said self-supporting polymer matrix, the latter being chosen to provide a percolation pathway for ionic charges, this allowing, under the action of a dielectric current, oxidation and reduction reactions of said electroactive organic compounds, which reactions are necessary to obtain a color contrast.

Abstract: The invention relates to an electrolyte material for an electrically-controllable device having variable optical/energy properties, characterized in that it comprises a self-supporting polymer matrix containing ionic fillers and a liquid for solubilizing said ionic fillers, said liquid not solubilizing said self-supporting polymer matrix, the latter being selected so as to provide a percolation path for said ionic fillers; to an electrically-controllable device having variable optical/energy properties, comprising such an electrolyte material; and to a method for fabricating such an electrically-controllable device, characterized in that the various layers thereof are assembled by calendering or lamination, optionally with heating.

Abstract: Provided is an electrochromic device (ECD) that includes: a first transparent electrode having a first substrate having thereon a first electrically conductive layer; a second transparent electrode having a second substrate having thereon a second electrically conductive layer; a first polymeric layer on the first transparent electrode, wherein the first polymeric layer includes a cathodic electrochromic polymer and a first non-electrochromic polymeric matrix; a second polymeric layer on the second transparent electrode, wherein the second polymeric layer includes an anodic electrochromic polymer and a second non-electrochromic polymeric matrix; and an electrolyte layer disposed between the first polymeric layer and the second polymeric layer. Also provided is a process of producing the ECDs, as well as the electrochromic layers themselves.

Abstract: Electrochemical system comprising at least one substrate of organic nature, at least one electronically conductive layer and at least one active species, characterized in that it includes at least one organic layer lying between the electronically conductive layer and the substrate.