Abstract: The invention relates to a glass element (200) including at least one insulating glass panel including at least one first (10) and one second (11) glass sheet combined with one another via a spacer (12) which keeps same spaced apart from one another, said spacer extending along the side, upper and lower edges of said two glass sheets and between said at least two glass sheets, at least one inner space (15) including a layer of an insulating gas and closed by a first (13) and a second (14) peripheral seal arranged around said inner space, and at least one frame (201) which supports said at least one insulating glass panel, said frame including (i) a stationary bracket (21) and (ii) a movable bracket (22) which is hinged on the stationary bracket and which allows the opening and/or the closing of the glass element.

Abstract: A solar energy reflector (1) comprises a mirror (5) with no copper layer laminated to a supporting sheet (7) by means of a bonding material (6). The edges of the mirror (5) are provided, at least on a portion forming the major part of their height and closest to the metallic sheet, with an edge protection (8) made of a material comprising silicone, polyurethane and/or acrylic and the material forming the edge protection (8) is different from the bonding material (6).

Abstract: The invention relates to an insulating double glazing comprising a sheet of glass which has on the face (2) assembly of layers known as low-emissivity layers, produced by sputtering and comprising at least one infrared-reflecting metallic layer, the other glass sheet comprising on the face (4) one or more metal oxide layers deposited by gas pyrolysis, the space located between the sheets being sealed and filled with insulating gas composed of krypton for at least 86% by volume and at most 5% of air, this glazing having a light transmission which is no less than 60% (for thickness of the clear glass sheets of 4 mm).

Abstract: The invention relates to an insulating double glazing comprising a sheet of glass which has on the face (2) an assembly of layers known as low-emissivity layers, produced by sputtering and comprising at least one infrared-reflecting metallic layer, the other glass sheet comprising on the face (4) one or more metal oxide layers deposited by gas pyrolysis, the space located between the sheets being sealed and filled with insulating gas composed of krypton for at least 86% by volume and at most 5% of air, this glazing having a light transmission which is no less than 60% (for thicknesses of the clear glass sheets of 4 mm), wherein said metal oxide layers comprising a doped tin oxide layer having haze of less than 0.3%, Ra of less than 10 nm, and thickness of not less than 200 nm.

Abstract: The invention concerns a glazing panel comprising first (5) and second (5) glass sheets linked together via at least one spacer (8) which holds them a certain distance apart from one another and, between said glass sheets (5), an inner space (4) comprising at least one first cavity (41), in which there is a vacuum of less than 100 mbar and which is closed by a peripheral seal disposed at the periphery of the glass sheets, around said inner space (4), the seal (1) being a metal seal rigidly connected respectively to the first and second glass sheets. According to the invention, the metal seal (1) further comprises at least one hollow metal tube (11) of which a first end (111) communicates with the inner space (4) and a second end (112) communicates with the outside of the panel, the second end (112) comprising means for blocking the tube. According to the invention, the tube comprises at least one gas trap (113) rigidly connected to the inside of the tube (11).

Abstract: The Present invention relates to a method for manufacturing at least one portion of a seal ensuring gas-tightness between at least one first and one second glass panel in a glazing system, the method including the following steps: depositing a first adhesive layer on a first peripheral area of the first panel and a second adhesive layer on a second peripheral area of the second panel; welding a first metal seal element to the first adhesive layer; welding a second metal seal element or said first metal seal element to the second adhesive layer. According to the invention, the first and second adhesive layers are deposited using a high speed oxy-fuel flame-spraying method.

Abstract: The present invention relates to a method for manufacturing at least one portion of a seal ensuring gas-tightness between at least one first and one second glass panel in a glazing system, the method including the following steps: depositing a first adhesive layer on a first peripheral area of the first panel and a second adhesive layer on a second peripheral area of the second panel; welding a first metal seal element to the first adhesive layer; welding a second metal seal element or said first metal seal element to the second adhesive layer. According to the invention, the first and second adhesive layers are deposited using a high-speed oxy-fuel flame-spraying method.

Abstract: The invention relates to an insulating double glazing comprising a sheet of glass which has on the face (2) an assembly of layers known as low-emissivity layers, produced by sputtering and comprising at least one infrared-reflecting metallic layer, the other glass sheet comprising on the face (4) one or more metal oxide layers deposited by gas pyrolysis, the space located between the sheets being sealed and filled with insulating gas composed of krypton for at least 86% by volume and at most 5% of air, this glazing having a light transmission which is no less than 60% (for thicknesses of the clear glass sheets of 4 mm).

Abstract: Mirror consisting of a glass substrate having a front surface and a rear surface, the rear surface carrying, in order, a silver coating layer and at least one base paint layer. The glass substrate, the silver coating layer, and the at least one base paint layer each have an edge portion having a rear facing surface arranged at an acute angle to the front surface of the mirror. An additional paint layer covers the entire surface of the base paint layer and the rear facing surfaces of the glass substrate and the silver coating layer.

Abstract: The present invention relates to a method for manufacturing at least one portion of a seal ensuring gas-tightness between at least one first and one second glass panel in a glazing system, the method including the following steps: depositing a first adhesive layer on a first peripheral area of the first panel and a second adhesive layer on a second peripheral area of the second panel; welding a first metal seal element to the first adhesive layer; welding a second metal seal element or said first metal seal element to the second adhesive layer. According to the invention, the first and second adhesive layers are deposited using a high-speed oxy-fuel flame-spraying method.

Abstract: Mirrors according to the present invention comprise a glass substrate (1) having a front surface (10) and a rear surface (11), said rear surface (11) carrying, in order, a silver coating layer (2) and at least one base paint layer (3); they are characterised in that the glass substrate (1), the silver coating layer (2) and the at least one base paint layer (3) have each an edge portion having a rear facing surface (51, 52, 53) arranged at an acute angle (?1, ?2, ?3) to the front surface of the mirror and in that they comprise an additional paint layer (4) covering substantially the whole surface of the at least one base paint layer (3) and the rear facing surfaces (51, 52, 53) of the glass substrate (1), silver coating layer (2) and at least one base paint layer (3).

Abstract: Solar energy reflectors (1) according to the present invention comprise a mirror (5) laminated to a support (6) by means of a bonding material (9) comprising a foam tape.

Abstract: Mirror assemblies according to the present invention comprise a mirror (1) and a facing panel (2) with a sealed gas space (5) therebetween. The mirror (1) may be a mirror comprising a glass substrate (10), a silver coating layer (11) and at least one paint layer (12), or a mirror comprising an organic mirror film (14) bonded to a substrate (13). In the case of a glass mirror, the at least one paint layer (12) faces the sealed gas space (5) and in the case of a mirror comprising an organic mirror film (14), the mirror film faces the sealed gas space (5).

Abstract: An insulating glazing panel including two glass panes held in spaced apart relation by a peripherally extending assembly including a spacer (including profile lengths, corners and at least one connection) and a first sealant. The two glass panes and the assembly define a first, closed interpane space and a second, open interpane space. A second sealant is provided in the second, open interpane space and coats the assembly. The thickness of the second sealant coating the majority of the spacer's outermost points that are not at a corner or connection position is less than or equal to 1 mm; and the thickness of the second sealant adjacent to the glass panes, measured parallel to the glass panes from the spacer's outermost point level at the majority of the positions that are not a corner or a connection, is more than 1 mm.

Abstract: A solar energy reflector (1) comprises a mirror (5) with no copper layer laminated to a supporting sheet (7) by means of a bonding material (6). The edges of the mirror (5) are provided, at least on a portion forming the major part of their height and closest to the metallic sheet, with an edge protection (8) made of a material comprising silicone, polyurethane and/or acrylic and the material forming the edge protection (8) is different from the bonding material (6).

Abstract: A method for forming a coating film at part of a surface of a substrate includes, in sequence, a first step of applying a masking agent having inert particles over part of the substrate through a screen having blocked areas, a second step of depositing the coating film under at least partial vacuum over at least part of the surface covered and not covered by the masking agent, and a third step of removing the masking agent covered by the film with the aid of an aqueous fluid.

Abstract: The method comprises the steps of applying a masking agent at part of a surface of the substrate, depositing the coating film over at least part of the surface of the substrate which is covered by the masking agent and over at least part of the surface of the substrate which is free of the masking agent and removing the masking agent from the substrate. The masking agent is preferably removed by the application of water.