A composite glass pane having a first glass pane, a second glass pane, and an intermediate layer arranged between the first and second glass panes is described. The intermediate layer includes one cover layer based on a thermoplastic polymer, and a border seal. The first glass pane is arranged with an offset relative to the second glass pane, the intermediate layer is cut back along at least one edge of the composite glass pane by a border distance, and the border seal is arranged in a border gap delimited by the first glass pane, the second glass pane and the intermediate layer. The border seal contains a polymer fusible with a polymer of the cover layers.

A light-emitting diode module, for a vehicle, includes a first transparent sheet having a first main face and a second main face and an edge face; the diodes each including an emitting chip able to emit one or more wavelengths in the visible, guided in the first sheet; a bracket supporting the diodes, extending as a border of the glazing and fastened to the glazing; and a seal against fluid(s), able to protect the chips and the light-emission volume of the chips before injection into the first sheet. An embodiment of the invention also relates to the manufacture of this module.

In a light-adjusting-panel structure, a light-adjusting sheet is bonded, using a first adhesive, to the back surface of a first transparent panel. In this light-adjusting-panel structure, the end section of the light-adjusting sheet is drawn out to a position closer to the end section of the first transparent panel than the end surface of the first adhesive, in a direction along the panel surface of the first transparent panel. Further, the light-adjusting-panel structure covers the drawn-out end section and the end surface of the first adhesive, the light-adjusting-panel structure being provided with a seal material having lower moisture permeability than the first adhesive.

A laminated glazing unit includes a glass sheet, the border of which is set back relative to that of a structural block, the edge of the glass sheet and the edge of the adhesive interlayer bonding the sheet and the block, the surface of the block protruding relative to the sheet, the edge of the block and a peripheral portion of the free surface of the block being covered by a seal, the laminated glazing being clamped to the mounting structure by a pane retainer, the seal extending in the direction of the pane retainer and/or in the direction of the structure in a rigid protrusion having a small depth and a flexible protrusion having a large depth.

Methods for cutting strengthened glass are disclosed. The methods can include using a laser. The strengthened glass can include chemically strengthened, heat strengthened, and heat tempered glass. Strengthened glass with edges showing indicia of a laser cutting process are also disclosed. The strengthened glass can include an electrochromic film.

Glass articles are provided that include a glass sheet with an aerogel sheet in a mounted position alongside the glass sheet. The aerogel sheet is retained in the mounted position by an encapsulation material. The encapsulation material can include an organic material, such as a material comprising polyethylene terephthalate glycol. Methods of making glass articles are provided. Also provided are IG units that include encapsulated aerogel sheets, as well as related subassemblies, and methods of manufacturing such IG units and subassemblies.

A method of manufacturing a window includes: preparing a glass substrate laminate which includes preparing a base substrate, alternately disposing glass substrates and adhesive layers on the base substrate, and disposing a cover substrate on the glass substrates and the adhesive layers alternately disposed; and cutting the glass substrate laminate, where the adhesive layers include a potassium nitrate (KNO.sub.3) particle and an adhesive resin. This method makes it possible to effectively manufacture an ultra-thin glass substrate used for a window.

Thin-film devices, for example electrochromic devices for windows, and methods of manufacturing are described. Particular focus is given to methods of patterning optical devices. Various edge deletion and isolation scribes are performed, for example, to ensure the optical device has appropriate isolation from any edge defects. Methods described herein apply to any thin-film device having one or more material layers sandwiched between two thin film electrical conductor layers. The described methods create novel optical device configurations.

A window for a display device that includes: a base substrate; a first coating layer disposed on a first surface of the base substrate; and a second coating layer disposed on a second surface that overlaps the first surface of the base substrate, wherein the base substrate further includes a vertical surface perpendicular to the first surface and the second surface, and the first coating layer overlaps the vertical surface. The impact resistance of the window is improved through the first coating layer covering the rear surface and the vertical surface of the base substrate.

A window for a display device that includes: a base substrate; a first coating layer disposed on a first surface of the base substrate; and a second coating layer disposed on a second surface that overlaps the first surface of the base substrate, wherein the base substrate further includes a vertical surface perpendicular to the first surface and the second surface, and the first coating layer overlaps the vertical surface. The impact resistance of the window is improved through the first coating layer covering the rear surface and the vertical surface of the base substrate.