A laminated pane for a head-up display system, includes a first coating on a second surface of a first pane, a second coating on a surface of a second pane, an HUD region having the first coating and the second coating, wherein the first coating and the second coating are provided for reflecting p-polarized radiation, wherein a refractive index of the first coating is at least 1.9, wherein the second coating includes at least one first layer of a dielectric material having a refractive index of greater than or equal to 1.9 and a second layer of a dielectric material having a refractive index of less than or equal to 1.6, and wherein the second pane has a smaller thickness than the first pane, and wherein the first coating and the second coating have exclusively dielectric layers.

A luminous glazing assembly includes a first glazing pane with a first light source coupled to the first pane to emit at instant t0 at 1 and to emit at tt0 at 2, 2 distinct from 1; a first light-extracting system and first masking arrangement to mask the extracted light from the internal-face side; making optical contact with the first glazing pane, a second glazing pane with a second light source that is optically coupled to the second pane, to emit at t0 at a 3 distinct from 1; a second light-extracting system and second masking arrangement to mask the light from the bonding-face side; between the first masking arrangement and the second extracting system, a first optical isolator; and between the first masking arrangement and the second extracting system, a second optical isolator, merged with the first optical isolator or separate and closer to the second extracting system.

A projection arrangement includes a laminated pane including an outer and inner panes connected to one another via a thermoplastic intermediate layer, a reflective layer arranged between the outer and inner panes in at least one display region of the laminated pane, and a reflection-increasing coating which is arranged at least within the display region on an interior-side surface of the inner pane facing away from the thermoplastic intermediate layer, and a projector the radiation of which is predominantly p-polarized and which is directed toward the display region and wherein the interior-side surface of the inner pane is the face of the laminated pane closest to the projector. The reflection-increasing coating includes at least one optically high-refractive layer having a refractive index of greater than or equal to 1.9 and at least one optically low-refractive layer having a refractive index of less than or equal to 1.6.

A solar protection and/or thermal insulation glazing including a substrate, in particular a glass substrate, provided with a stack of thin layers which act on solar radiation, the stack having the succession of the following layers, starting from the surface of the glass: an underlayer or a set of underlayers, the underlayer(s) having dielectric materials, a layer based on titanium oxide also having silicon, the overall Si/Ti atomic ratio in said layer being between 0.01 and 0.25, and in which Si and Ti represent at least 90% of the atoms other than oxygen, the thickness of the layer being between 20 and 70 nm, an overlayer or a set of overlayers, said overlayer(s) having dielectric materials.

A luminous glazing assembly includes a first glazing pane with a first light source coupled to the first pane to emit at instant t0 at 1 and to emit at tt0 at 2, 2 distinct from 1; a first light-extracting system and first masking arrangement to mask the extracted light from the internal-face side; making optical contact with the first glazing pane, a second glazing pane with a second light source that is optically coupled to the second pane, to emit at t0 at a 3 distinct from 1; a second light-extracting system and second masking arrangement to mask the light from the bonding-face side; between the first masking arrangement and the second extracting system, a first optical isolator; and between the first masking arrangement and the second extracting system, a second optical isolator, merged with the first optical isolator or separate and closer to the second extracting system.

The present disclosure provides a coated glass and a laminated glass. The coated glass includes a first glass substrate, a low-emissivity layer, a metal absorption layer and an anti-reflection layer; the low-emissivity layer is deposited on one surface of the first glass substrate and comprises at least one transparent conductive oxide layer; the metal absorption layer is deposited on the low-emissivity layer; and the anti-reflection layer is deposited on the metal absorption layer. The present disclosure provides a low-emissivity glass, with a simple production process, a low emissivity, a low visible light reflectivity and a neutral color, which can be used in the fields of building and vehicle glass. The low-glass having the coated glass and the laminated glass of the present disclosure, which emissivity value and the visible light reflectivity are reduced, and the inner surface of the laminated glass with the low-emissivity layer has a beautiful color.

A transparent panel for use in a vehicle roof of a vehicle comprises a layered stack comprising a first and a second transparent pane and an electrically conductive assembly arranged between the second and the third main surface, wherein a through hole is provided in the second pane. The panel further comprises an electric apparatus mounted on a passenger compartment side covering the through hole. The electric apparatus is electrically coupled to the electrically conductive assembly through the through hole. The electrically conductive assembly electrically couples a first and a second terminal and is arranged between and adjacent to the first and the second terminals, wherein an optical transmissivity of the transparent panel is not visually deteriorated in an area of the electrically conductive assembly around the electric apparatus.

Vehicle window glass, a manufacturing method therefor, and a vehicle are provided in the present disclosure. The vehicle window glass includes a glass substrate and a transparent nano coating. The glass substrate has an outer surface and an inner surface opposite to the outer surface. The transparent nano coating is disposed on the inner surface. The transparent nano coating includes a standard high refractive-index layer, an enhanced high refractive-index layer, and an outermost low refractive-index layer. The standard high refractive-index layer, the enhanced high refractive-index layer, and the outermost low refractive-index layer are sequentially laminated in a direction away from the inner surface. The standard high refractive-index layer has a refractive-index layer ranging from 1.61 to 2.59. The enhanced high refractive-index layer has a refractive index greater than or equal to 2.6. The outermost low refractive-index layer has a refractive index ranging from 1.35 to 1.60.

A glass to be installed in a vehicle includes: a glass member; a colored ceramic layer provided in a predetermined region of the glass member; an opening portion for information acquisition, provided with one or more sides in contact with the colored ceramic layer in plan view; and a plate-shaped member overlapping the opening portion, and extending outside from each of the one or more sides to overlap the colored ceramic layer, wherein the one or more sides include a top side that becomes an upper side upon installing the glass in the vehicle, and wherein the overlapping amount between the colored ceramic layer and the plate-shaped member on the outside of the top side is greater than or equal to 3.5 mm.

Various aspects of solar modules are set forth herein, at least one solar cell having a configured between a first substrate and a second substrate with an encapsulant configured between the first substrate and the second substate to retain the solar cell in place between the first substrate and the second substrate; wherein at least one of the first substrate and the second substrate is a borosilicate glass composition, comprising: at least 75 mol % SiO.sub.2; at least 10 mol % B.sub.2O.sub.3; and Al.sub.2O.sub.3 in an amount such that sum of SiO.sub.2, B.sub.2O.sub.3, and Al.sub.2O.sub.3 is at least 90 mol %.