14 results about "Insulated glazing" patented technology

A insulated glazing unit is disclosed. The insulated glazing unit can include a first panel, a second panel, an electrochromic device coupled to the first panel, and one or more sensors. The one or more sensors can be located within a sealed space defined by the spacer, the first panel, and the second panel.

A connecting element, in particular for contacting an electrically conductive coating and / or an electrically controllable functional element in an insulated glazing, includes at least one flat conductor, which is arranged on a first side of an electrically insulating carrier film, and the flat conductor has at least one first connection region with at least one first solder deposit and at least one second connection region with at least one second solder deposit, and at least one second adhesive layer, which is arranged below and / or next to the second connection region on a second side of the carrier film facing away from the first side.

An electrical feedthrough and a manufacturing method thereof are provided. The electrical feedthrough includes a lead pin, a housing, a glass, and an inner guide surface and / or an outer guide surface. The housing is located radially outward of the lead pin. The glass is located between the lead pin and the housing, insulating the lead pin and the housing from each other. The glass defines an axial inner heterogeneous interface with the lead pin and an axial outer heterogeneous interface with the housing. The inner guide surface defines an inner crack surface with the glass, the inner crack surface extending from an axial end surface of the glass to the axial inner heterogeneous interface. The outer guide surface defines an outer crack surface with the glass, the outer crack surface extending from the axial end surface of the glass to the axial outer heterogeneous interface. In this way, the electrical feedthrough can have better stability and durability.

An article is described herein including a substrate with a first major surface and a second major surface and an infrared-reflective-visible-anti-reflective (IRVAR) coating disposed on the first major surface, the IRVAR coating including a plurality of multilayer sections, each of the multilayer sections disposed successively with respect to one another on the first major surface, each multilayer section comprising at least two layers exhibiting unique indices of refraction. The IRVAR coating exhibits a maximum hardness that is greater than or equal to 4 GPa. The article exhibits (i) an average transmittance that is greater than or equal to 90.0% across a wavelength range of from 450 nm to 900 nm and (ii) an average transmittance through the article that is less than or equal to 85% across a wavelength range of from 1200 nm to 1800 nm.

Provided is frequency-selective insulating glass for buildings. The insulating glass comprises: a first glass layer; a first insulating metal thin film layer disposed above the first glass layer; a polymer bonding layer disposed above the first insulating metal thin film layer; a second insulating metal thin film layer disposed above the polymer bonding layer; and a second glass layer disposed above the second insulating metal thin film layer. Here, each of the insulating metal thin film layers comprises a plurality of first unit cells and second unit cells. Here, at least a part of the first unit cells comprises: a first pattern of a reference scale; and a first pattern of a first reduced scale, which is disposed in at least one blank area provided in the first pattern of the reference scale.

Frequency-selective building insulating glass is provided. The insulating glass comprises: a first glass layer; a first insulating metal thin film layer disposed on the first glass layer; a polymer bonding layer disposed on the first insulating metal thin film layer; a second insulating metal thin film layer disposed on the polymer bonding layer; and a second glass layer disposed on the second insulating metal thin film layer. Here, each of the first insulating metal thin film layer and the second insulating metal thin film layer includes a plurality of first unit cells and second unit cells. At least some of the first unit cells include a grid pattern and at least some of the second unit cells include a square slit.

The present disclosure relates to a method of producing a vacuum insulated glass (VIG) unit (1), wherein said method comprises distributing a plurality of support structures (5) at a first tempered glass sheet (3) so that the support structures supports on a first major surface (3a) of the first tempered glass sheet (3), and so that the minimum distance (DISI) between 5 adjacent support structures is at least 30 mm. A second tempered glass sheet (4) is arranged so that the distributed support structures (5) are placed in a gap (6) between the first major surface (3a) and a second major surfaces (4a) of the second tempered glass sheet (4). An edge seal is provided around the periphery of the glass sheets. The gap (6) is evacuated and sealed. The provided support structures (5) arranged at the first major surface (3a) comprises 10 solid, spherical balls (10). The solid spherical balls (10) are plastically deformed by means of said major surfaces (3a, 4a) so that the initial height (H2) of a plurality of the solid spherical balls (10) is reduced by at least 10% to a reduced support structure height (H1). This flattens and enlarges opposing contact surfaces (5a, 5b) of the support structures (5) in contact with the first and second major surfaces (3a, 4a) respectively.

Provided is a building insulating glass having frequency selectivity. The insulating glass comprises: a first glass layer; a first insulating metal thin film layer disposed on top of the first glass layer; a polymer bonding layer disposed on top of the first insulating metal thin film layer; a second insulating metal thin film layer disposed on top of the polymer bonding layer; and a second glass layer disposed on top of the second insulating metal thin film layer. The insulating metal thin film layers include a plurality of first unit cells and a plurality of second unit cells, respectively. In at least some of the first unit cells or the second unit cells, regions other than slits provided in a first pattern or a second pattern are formed as a metal mesh structure.

Building insulating glass having frequency selectivity is provided. The insulating glass comprises: a first glass layer; a first insulating metal thin film layer disposed on the first glass layer; a polymer bonding layer disposed on the first insulating metal thin film layer; a second insulating metal thin film layer disposed on the polymer bonding layer; and a second glass layer disposed on the second insulating metal thin film layer. Here, the first insulating metal thin film layer and the second insulating metal thin film layer include a plurality of first unit cells and second unit cells, respectively. At least a portion of the first unit cells includes a Jerusalem pattern and at least a portion of the second unit cells includes square slits.

A spacer for insulating glass units includes a polymer hollow profile extending in the longitudinal direction, having first and second side walls arranged parallel thereto, a glazing interior wall extending in the transverse direction between the side walls and connects them to one another, an outer wall arranged at least partially parallel to the glazing interior wall and perpendicular to the side walls and connects the side walls to one another, and a cavity enclosed by the side walls, the glazing interior wall and the outer wall, a plurality of continuous fibers, wherein each continuous fiber has a fiber length along its extension which corresponds to a dimension of the polymer hollow profile along the extension of the continuous fiber.

Building insulating glass having frequency selectivity is provided. The insulating glass comprises: a first glass layer; a first insulating metal thin film layer disposed on the first glass layer; a polymer bonding layer disposed on the first insulating metal thin film layer; a second insulating metal thin film layer disposed on the polymer bonding layer; and a second glass layer disposed on the second insulating metal thin film layer. Here, the first insulating metal thin film layer and the second insulating metal thin film layer include a plurality of first unit cells and a plurality of second unit cells, respectively. At least some of the first unit cells and at least some of the second unit cells include a square slit having a predetermined width and size.

Thermal-insulating building glass having frequency selectivity is provided. The thermal-insulating glass comprises: a first glass layer; a first thermal-insulating metal thin film layer disposed on the first glass layer; a polymer bonding layer disposed on the first thermal-insulating metal thin film layer; a second thermal-insulating metal thin film layer disposed on the polymer bonding layer; and a second glass layer disposed on the second thermal-insulating metal thin film layer. Here, each of the first thermal-insulating metal thin film layer and the second thermal-insulating metal thin film layer includes a plurality of first unit cells and second unit cells. At least a part of the first unit cells and at least a part of the second unit cells include the Jerusalem pattern.

Building insulating glass having frequency selectivity is provided. The insulating glass comprises: a first glass layer; a first insulating metal thin film layer disposed on one surface of the first glass layer; a second insulating metal thin film layer facing the first insulating metal thin film layer and separated by a predetermined separation distance therefrom; and a second glass layer disposed on one surface of the second insulating metal thin film layer. On the basis of a pattern provided in at least a portion of first unit cells and a pattern provided in at least a portion of second unit cells, the insulating glass is configured to transmit a signal having a first polarization and reflect a signal having a second polarization perpendicular to a direction of the first polarization.

A coated substrate for reducing bird collisions, such as in architectural windows, is disclosed. The coated substrate includes a first substrate having a first surface and a second surface disposed opposite to the first surface; wherein the second surface includes at least one functional layer thereon; and wherein the first surface includes a first coating having a predetermined pattern that contrasts in the UV and / or bird-visible range when compared to an uncoated portion of the first surface of the substrate, or when compared to other coated portions of the first surface. The coated substrate can be used as a single substrate in an architectural window or as a substrate in an insulating glass unit. A method for forming an architectural window to reduce bird collisions using upward sputtering and downward sputtering processes is also provided.