The invention concerns a glazing comprising a first glass sheet having a surface; a printed layer on a part of the surface of the first glass sheet; a conductive coating on a part of the printed layer forming a coated print portion and on a part of the surface of the first glass sheet forming a coated glass portion; first and second busbars in electrical contact with the conductive coating and comprising a first or second busbar portion arranged on a different axis therefrom; a first printed layer portion adjacent the first or second busbar portion forming an adjustable coated print portion between the first and second busbars.

A HUD system including a light source projecting p-polarized light towards a glazing, the glazing includes an outer sheet of glass having a first surface and a second surface, and an inner sheet of glass having a first surface and a second surface, and the second surface of the inner sheet of glass has a first coating, where both sheets are bonded by at least one sheet of interlayer material, and the first coating includes at least one high refractive index layer having a thickness from 50 to 100 nm, and at least one low refractive index layer having a thickness from 70 to 160 nm, and the least one high refractive index layer has at least one of an oxide of Zr, Nb, Sn; a mixed oxide of Ti, Zr, Nb, Si, Sb, Sn, Zn, In; a nitride of Si, Zr; or a mixed nitride of Si, Zr.

The present invention relates to coating glass for architectural or automotive use, either monolithic or laminated, having solar control properties. The coating consists of several layers of different metal oxide semiconductors (TiO.sub.2, ZnO, ZrO.sub.2, SnO.sub.2, Al.sub.2O.sub.3) and a layer of metallic nanoparticles, which when superimposed on a pre-established order give the glass solar control properties. In particular the use of protective layers of n-type semiconductors around the metallic nanoparticles layer. It also relates to the method for obtaining the coating by means of the aerosol-assisted chemical vapor deposition technique, using precursor solutions containing an organic or inorganic salt (acetates, acetylacetonates, halides, nitrates) of the applicable elements and an appropriate solvent (water, alcohol, acetone, acetylacetone, etc.). The synthesis is performed at a temperature between 100 and 600° C. depending on the material to be deposited. A nebulizer converts the precursor solution into an aerosol which is submitted with a gas to the substrate surface, where due to the temperature the thermal decomposition of the precursor occurs and the deposition of each layer of the coating occurs.

An article includes a substrate with two main faces defining two main surfaces separated by edges, the substrate carrying a functional coating deposited over at least a portion of a main surface and a temporary protective layer deposited over at least a portion of the coating. The temporary protective layer has a thickness of at least 1 micrometer. The temporary protective layer made of polyfuran resin is obtained from a liquid composition comprising furfuryl alcohol.

A glazing can be used as a constituent element of a heating device or of a fireproof door. The glazing includes a transparent substrate coated with a stack of thin layers including at least one silver-based functional metal layer and an upper protective layer based on zirconium titanium oxide.

A material including a transparent substrate coated with a stack acting on infrared radiation includes at least one functional layer and at least one upper protective layer deposited above at least a part of the functional layer. The upper protective layer is a hydrogenated carbon layer, within which layer the carbon atoms form carbon-carbon and carbon-hydrogen bonds and are essentially in an sp.sup.2 hybridization state.

A coated article includes a substrate and a coating over at least a portion of the substrate. The coating includes a first dielectric layer over at least a portion of the substrate; a first metallic layer over at least a portion of the first dielectric layer; a second dielectric layer over at least a portion of the first metallic layer; and an overcoat over at least a portion of the second dielectric layer. A light absorbing layer is between second dielectric layer and the overcoat or is part of the overcoat. The light absorbing layer includes Ge, GeO.sub.x, Hf, HfO.sub.x, HfO.sub.2, NbN.sub.x, NbN.sub.xO.sub.y, Si.sub.aAl.sub.b, Si.sub.aAl.sub.bO.sub.x, Si.sub.aCo.sub.b, Si.sub.aCo.sub.bO.sub.x, Si.sub.aCo.sub.bCu.sub.c, Si.sub.aCo.sub.bCu.sub.cO.sub.x, Si.sub.aCr.sub.b, Si.sub.aCr.sub.bO.sub.x, Si.sub.aNi.sub.b, SiNiO.sub.x, SiO.sub.x, SnN.sub.x, SnO.sub.x, SnO.sub.xN.sub.y, TiN.sub.x, Ti.sub.aNb.sub.bN.sub.x, Ti.sub.aNb.sub.bO.sub.x, Ti.sub.aNb.sub.bO.sub.xN.sub.y, TiO.sub.xN.sub.y, WO.sub.x, WO.sub.2, ZnO:Co, ZnO:Fe, ZnO:Mn, ZnO:Ni, ZnO:V, ZnO:Cr, Zn.sub.aSn.sub.b, Zn.sub.aSn.sub.bO.sub.x, or any combination thereof.

A transparent substrate with a thin film multilayer coating, and the thin film multilayer coating includes a lower dielectric layer, a lower metal protective layer, a metal functional layer having an infrared reflecting function, an upper metal protective layer, and an upper dielectric layer, which are sequentially laminated on the transparent substrate, wherein the lower metal protective layer is thicker than the upper metal protective layer, and the thickness of the upper metal protective layer is 0.3 nm to 0.7 nm.

A coated article includes a substrate, a first dielectric layer, a first metallic layer, a first primer layer, a second dielectric layer, a second metallic layer, a second primer layer, a third dielectric layer, a third primer layer, a third metallic layer, and a fourth dielectric layer. The total combined thickness of the metallic layers is at least 30 nanometers and no more than 60 nanometers. The article can have a sheet resistance of less than 0.85 Ω/□, a visible light reflectance of not more than 10%, and a visible light transmittance of at least 70%.

A material includes a transparent substrate coated with a stack including at least one functional metal layer based on silver and at least two dielectric coatings, each dielectric coating including at least one dielectric layer, in such a way that each functional metal layer is positioned between two dielectric coatings, wherein the stack includes a layer based on silicon oxide having a thickness of greater than or equal to 12 nm located directly in contact with the substrate.