433 results about "Glazing" patented technology

The present disclosure relates to an infrared camera module comprising an infrared image sensor, an outer window, inclined with respect to an optical axis of the infrared image sensor and held in a window mount comprising a shape adapted to cooperate, in a removable manner, with a receiving part surrounding a hole passing through a glazing, and an interface part providing a mechanical link between the window mount and the infrared image sensor.

A glazed assembly includes a monolithic or laminated glazing and a finishing joint and / or seal, the glass sheet of the monolithic glazing, or, respectively, an outer sheet of the laminated glazing, these being referred to as “considered glass sheet”, including an outer first face and a second face separated by an edge face including a first curved part connected to the first face, a second curved part connected to the second face, and a flat part connecting the first and second curved parts together, the intersection between the flat part and a curved part being made up, in a cross-section, of a single point, the seal or joint including a contact part opposite the edge face and including a flat face in contact with the flat part, and a first protuberance in the continuation of the flat face and covering the entire curved part connected to the outer face.

A protective barrier affixable to a curved substrate comprises a stack of two or more lenses, each of the two or more lenses including a polyethylene terephthalate (PET) film, a hard coat on a first side of the PET film, and an adhesive layer on a second side of the PET film opposite the first side. The stack of two or more lenses may have a modulation transfer function that exhibits a contrast value greater than 75% for a spatial resolution of one line-pair per 0.0003 radians at 65 degrees angle of incidence. Heat and pressure may be applied to conform the stack of two or more lenses to the shape of the curved substrate.

The present invention relates to a lighting vehicle glazing comprising (i) an external glass pane (11), (ii) an Internal glass pane (12) acting as a light guide layer, (iii) the first and the second glass panes (11, 12) being laminated together via at least a first plastic interlayer (14), (iv) a light-decoupling means (13) provided between the first plastic interlayer and the internal glass pane (12), (v) a masking band provided along the periphery of the inner surface (P2) of the external glass pane and / or the inner surface (P4) of the internal glass pane, (vi) a light source (20) provided on the masking band or in the vicinity of the masking band, the light source being placed on the inner surface (P4) of the inner glass pane (12). According to the invention, at least one coupling element (30) is provided in the vicinity of the light source in a free zone of masking band, and materially bonded to the internal glass pane (11) on its inner surface (P4), that couples the light emitted from the light source (20) into the internal glass pane, the light source (30) facing a side edge (310) of the coupling element.

A spotlight, having a housing. The housing defines a cavity and a light exiting side of the spotlight. The spotlight has a light element provided in the cavity of the housing; a zoom optic provided in the cavity of the housing; and a filter arranged at the light exiting side on the housing. The filter has a tintable glazing (Smart Glass), wherein the translucency of the glazing is changeable by application of an electric voltage.

A glazing unit (101) is provided configured for reception of radio frequency signals, the glazing unit (101) has an optical layer (143) including electrophoretic charged particles and being arranged between a first substrate (141) and a second substrate (142), electrodes (122, 123) on the substrates (141, 142) cooperate in the electrophoretic modulation of the charged particles' position causing modulation of light passing through the glazing unit (101). The glazing unit (101) has at least one antenna (121) for reception of a radio frequency signal. The antenna (121) may be arranged on a side of a substrate (141, 142) or on a side of a pane (111, 112), e.g., glass pane.

The present invention provides flexible micro-pillars for vacuum glazing and vacuum glazing. The flexible micro-pillars for vacuum glazing comprise at least one glass fiber layer. The vacuum glazing of the present invention utilizes the flexible micro-pillars as microscopic pillars within the vacuum chamber. The present invention proposes an innovative method for significantly improving sound insulation by utilizing flexible micro-pillars made of glass fiber. The elasticity of the flexible micro-pillars also reduces the likelihood of glass breakage due to excessive stress at the point of contact with the micro-pillars when subjected to external impact.

A laminated glazing according to this disclosure includes a first glass sheet having first and second opposing surfaces, a second glass sheet having third and fourth opposing surfaces, an interlayer positioned between the second surface of the first glass sheet and the third surface of the second glass sheet, a first opaque layer, and a first reflective layer on the second glass sheet in an area overlapping with the first opaque layer.

A formed laminated glazing for a vehicle, includes two sheets of glass of different thicknesses separated by an interlayer made of polymer material, the thickness E1 of the thick glass V1 being such that 1.4 mm≤E1≤3.9 mm, the thickness E2 of the thin glass V2 being such that 1.1 mm≤E2≤2.6 mm, the thickness E3 of the polymer material M being such that 0.3 mm≤E3≤1.2 mm, the total glass thickness EV being such that 2.5 mm≤EV≤5.7 mm, the ratio of the thicknesses E2 / E1 being such that 0.34≤E2 / E1≤0.9. This glazing combines rigidity, acoustic performance and ease of manufacture.

The present disclosure provides a system and a method to deliver (irradiate) energy and defrost the surface of a glazing that does not require printed conductors, embedded wires, bus bar or conductive film. The present disclosure uses the optical phenomenon known as Frustrated Total Internal Reflection (FTIR) to deliver light energy directly to a surface of at least one glass layer of a windshield, glazing or other transparent substrate by means of high intensity light. The light is injected into the surface of at least one glass layer of the glazing at an angle that allows for light propagation via Total Internal Reflection (TIR). The light energy can be used as the sole source of energy or be complementary to a conductive coated resistive heated circuit and / or hot air blowing system.

The invention relates to a laminated luminous glazing with a diffusing material, the material comprising a transparent and diffusing layer having two main faces which comprises a glass sheet and / or a lamination interlayer.

The invention relates to a pane (101) for an illuminable glazing element (102), comprising: - an optical waveguide (4) for guiding visible light (5), having an inner surface (IV) and an outer surface (III), and - a layer stack (100) comprising - an optically clear adhesive layer (1) having an outer side (1.1) and an inner side (1.2), and - a reflective structure (2) having an inner side (2.1) facing the adhesive layer (1) and an outer side (2.2) facing away from the adhesive layer (1), wherein the reflective structure (2) is applied with its inner side (2.1) flat on the inner side (1.2) of the adhesive layer (1), and - a reflective layer (3), wherein the reflective structure (2) has a multiplicity of sloping surfaces (F) on its outer side (2.2), and the reflective layer (3) is applied to the sloping surfaces (F), and wherein the layer stack (100) is applied with the outer side (1.1) of the adhesive layer (1) on the outer surface (III) of the optical waveguide (4), characterized in that the refractive index of the adhesive layer (1) is greater by 0.005 to 0.040 than the refractive index of the optical waveguide (4).

The invention provides a method for optimizing a technology for painting, glazing and firing porcelain on a crystal surface, the optimized crystal belongs to a high-temperature-resistant material which is hard in texture, high in density and poor in adhesive force and has very high requirements on coloring and glazing of underglaze color, and pigments and glaze materials with strong adhesive force need to be manufactured, firstly, the surface of an optimized crystal object is polished to be in a moderate frosted state; then, pigment with moderate water content and extremely fine granularity is used for drawing, first-time fixation firing is carried out after coloring, and the highest firing temperature is 600 DEG C; after cooling, glaze is sprayed for 1-2 times for secondary firing, the temperature is selected according to the glaze, repeated coloring and glazing and repeated firing can also be performed according to creation requirements, and the highest firing temperature does not exceed 1650 DEG C. And the peak high-temperature time is controlled to be 10-20 minutes, so that the effect of fusing the glazing color and the crystal surface can be realized. According to the method, the defects that in the prior art, crystal and glaze are difficult to combine, and the firing effect is not ideal are overcome, and the exquisite and lasting crystal surface decoration effect is achieved.

1. Name of the designed product: construction aid (automobile frameless glass) 2. Use of the designed product: the designed product can be used as a lever to pry the automobile frameless glass. 3. Design points of the designed product: the shape. 4. Picture or photo best indicating the design points: perspective view. 5. Other circumstances or explanations: the left view enlarged view is an enlarged schematic view of the left view, and the right view enlarged view is an enlarged schematic view of the right view.

The invention relates to a glazing unit (10) comprising glazed walls (7) forming a cavity, which cavity includes a device comprising at least one plate (3) having a plurality of perforations (6) arranged periodically and defining a chamber (2) located within the cavity, the chamber (2) containing a compressible porous absorbent material (8) arranged to be, in a first state of insertion, compressed for its introduction into said chamber (2), and, in a second state of operation, expanded to conform to the walls of said chamber (2), said compressible porous absorbent material retaining the same acoustic performance in said first state of insertion and in said second state of operation. The invention also relates to such a device, and a method for manufacturing the glazing unit. Abstract figure: [Fig. 1]

A vehicle glazing and a method for manufacturing the glazing (1), the glazing comprising a glass element (2), a shaped gasket portion (3) and an antenna plate (4), wherein the shaped gasket portion is fixed to at least one edge of the glass element (2) via an outer surface (30) of the shaped gasket portion (3) which is surface-continuous (F1) with an outer surface (20) of the glass element (2), the antenna plate (4) having a fixing portion (45) integrated into the shaped gasket portion (3) and an outer portion (46) extending outside the shaped gasket portion (3), and the outer surface (40) of the antenna plate (4) being surface-continuous (F2) with the outer surface (30) of the shaped gasket portion (3).

The invention relates to a layer stack (100) for use as a light-coupling element on a pane (101), comprising, in the following sequence, an optically clear adhesive layer (1) with an outer side (1.1) and an inner side (1.2), a reflecting structure (2) with an inner side (2.1) and an outer side (2.2), wherein the inner side (2.1) of the reflecting structure (2) is applied over the surface of the inner side (1.2) of the adhesive layer, wherein the inner side (2.1) of the reflecting structure (2) is provided with a plurality of faces (F) inclined towards the inner side (1.2) of the adhesive layer (1), and the inclined faces (F) are coated with a reflecting layer (3). The invention also relates to a pane (101) provided with the layer stack (100), and to an illuminable glazing element (102) comprising the pane (101) provided with the layer stack (100).

The present invention relates to a method for manufacturing a glass article comprising the following steps: - the provision of a glass substrate, - the deposition, on at least one face of said glass substrate, of a stack of layers comprising at least one functional metallic layer containing silver, each of said layers being deposited by magnetic field assisted sputtering, - the application of a sol-gel solution comprising at least one silicon oxide precursor and / or at least one transition metal oxide precursor, said solution being applied over said stack of layers, so as to form a sol-gel layer having an average thickness of between 50 nm and 3000 nm, preferably between 70 nm and 1500 nm, - the heat treatment at a temperature above 500°C, preferably between 540°C and 700°C, so as to crack the sol-gel layer and damage the stack of layers.The present invention also relates to a glass article that can be obtained by such a process which comprises a glass substrate coated on at least one of its faces: - with a stack of layers comprising at least one functional metallic layer containing silver, and - with at least one sol-gel layer located above said stack of layers and having an average thickness between 50 nm and 3000 nm, preferably between 70 nm and 1500 nm, said stack of layers and said sol-gel layer having cracks or fissures.

A glass article comprising a photocatalytic coating including a titanium nitride layer and an outer titanium oxide layer, preferably at least partially in anatase form, said article being configured to impart a blue colour in transmission to a multiple glazing unit in which it constitutes the outer face, said multiple glazing unit further comprising a low-emissivity coating on another face of said multiple glazing unit, in particular face 2 or 3.

The invention relates to a system or assembly comprising a laminated glazing consisting of at least one first outer pane (1) retracted relative to at least two structural panes (3, 5) joined in pairs by adhesive interlayers (2, 4), in which peripheral portions of the structural panes (3, 5) protruding out of the first pane (1) comprise through-holes, a screw-nut assembly (11) is screwed into these through-holes in order to rigidly connect the structural glass sheets (3, 5) to the mounting structure (17), each through-hole being cylindrical and a cylindrical interface system (15) being positioned between the through-hole and the screw (11), or each through-hole having a conical or biconical geometry in each of the structural glass sheets (3, 5), a stud (21, 22) for insertion of a corresponding conical or biconical geometry, between which a conical or biconical clamping interlayer (23) is positioned; a method for producing the system.

The present invention relates to a multiple layer glazing comprising a transparent first outer layer, a transparent second outer layer, a narrower transparent third inner layer positioned between the outer layers, a transparent adhesive foil layer positioned between the first outer layer and the third inner layer, and a seal surrounding the third inner layer. The present invention also provides a laminated glazing core incorporated into such multiple layer glazing and a method for making such multiple layer glazing.

The present invention relates to a coated glass pane, a method of producing a coated glass pane, a multiple glazing comprising a coated glass pane and a use of a coated glass pane and / or multiple glazing in a building or vehicle, wherein the coated glass pane comprises a glass substrate and a coating suitable for reflecting infra-red radiation, and wherein the coating comprises a CexTiyOz layer comprising an oxide of cerium and titanium CexTiyOz and the atomic proportion of Ce based on Ce and Ti in the CeTiOx layer, calculated as x / (x+y), is from 0.10 to 0.30.

The present invention relates to a glazing system comprising a vehicle glazing (100), the glazing having a transmission window (111) in a near-infrared range and a diverging lens (20) having a first surface (21) and a second surface (22), opposite the first surface, the second surface (22) being intended to be oriented towards the outside of the glazing, at least one of said first and second surfaces, the diverging lens (20) having a first surface (21) and a second surface (22) being structured, the structured surface comprising a set of structures, in relief, concentric around said optical axis, and according to a radial section of the structured surface, the set of structures form an alternation of facets (210) and counter-facets (211).The diverging lens (20) is arranged and configured so as to receive said emission beam (70) from the LIDAR on the facets of the structures and all or part of the structures, called reference structures, each have facets at an angle Ak with respect to said plane of the diverging lens, the angle Ak of ​​the facets in absolute value increases with the radial distance, each having a height which varies with distance from the optical axis such that the external vertical angular aperture VFOV2 is greater than the initial vertical angular aperture VFOV1 and the external horizontal angular aperture HFOV2 is greater than the initial horizontal angular aperture HFOV1. Figure for the abbreviation: Fig. 1.

A window glazing assembly that can convert an existing or already-installed window, or be used to assemble new construction windows as a multi-pane or multi-glazed window unit, is provided herein. In particular, the glazing assembly includes an attachment assembly (e.g., peel-and-stick double-sided adhesive tape) and one or more glazing layers. Some embodiments further include a spacer assembly comprising a plurality of spacer bars that may be individually installed, e.g., one by one, around the perimeter of the window such as, to the window sash, window frame, or glass window pane, itself. The glazing layer(s) can then be secured or adhered to the spacer assembly, for example, around the perimeter thereof. Some embodiments may include additional or intermediate glazing layers, providing additional insulating airspaces and enhanced performance.

A method of preparing a glazing, comprising: stacking a first glass sheet, a first interlayer, a photopolymer film, a second interlayer, and a second glass sheet to provide a lamination stack; deairing the lamination stack; autoclaving the lamination stack to provide a laminated glazing; applying a reactive light to the photopolymer film in the laminated glazing, wherein reactive light is applied to the laminated glazing through a master holographic film; and bleaching the laminated glazing such that the photopolymer film is no longer reactive to light exposure.

The utility model provides double-layer glass and a butt joint stabilizing piece for fixing the glass, and relates to the field of glass fixing. Comprising double-layer glass, a plurality of butt-joint stabilizing pieces are evenly arranged on a stand column in the height direction of the stand column in an array mode, the double-layer glass is connected with the stand column through the butt-joint stabilizing pieces, and each butt-joint stabilizing piece comprises a C-shaped component and an E-shaped component; a first through hole is formed in the top of the C-shaped component, the E-shaped component comprises two concave parts, and a second through hole is formed in one concave part. According to the utility model, the fixing stability, the vertical angle and the flatness of the glass are more accurate, the construction cost is saved, the construction efficiency is improved, and the aesthetic effect of building decoration is improved.

The utility model provides a glue spraying device for double-layer hollow glass, which belongs to the technical field of glass processing, and comprises two support plates and a glue pressing assembly, the glue pressing assembly is arranged between the two support plates through a connecting assembly, the glue pressing assembly comprises a plurality of sliding rods arranged at the bottom of the connecting assembly, the bottom of each sliding rod is sleeved with a sleeve, and the sleeve is connected with the connecting assembly. Pressing blocks are arranged at the bottoms of the sleeves, a film pressing piece is arranged at the bottom between the two supporting plates, and the bottoms of the pressing blocks are attached to the top of the film pressing piece; the sealing device can adapt to hollow glass with different gaps, so that the sealing performance of the hollow glass is improved.

The invention relates to a laminated glazing unit (10) for a head-up display, comprising an outer glass sheet (12), an inner glass sheet (14), a lamination adhesive interlayer (16), and a reflective coating (18) configured to reflect p-polarised light, wherein the reflective coating (18) is deposited on an inner face (26) of the inner glass sheet (12), wherein the inner face (12) is opposite the lamination adhesive interlayer (16), and a functional stack deposited on an inner face (22) of the outer glass sheet (12) or on an outer face (24) of the inner glass sheet (14), wherein the reflective coating (18) comprises a first reflective module which comprises a first nitride-based dielectric layer, an oxide-based layer having a refractive index with a minimum between 800 and 1600 nm and an extinction coefficient that increases monotonically with the wavelength of the light, and a second nitride-based dielectric layer, and a second reflective module which comprises a high-refractive-index layer and a low-refractive-index layer, wherein the first reflective module is arranged between the inner face (26) of the inner glass sheet (14) and the second reflective module.

To provide multi-layered glass and high-altitude compatible multi-layered glass capable of easily restraining expansion of a hollow layer resulting from changes in pressure.SOLUTION: Multi-layered glass 100 comprises glass plates 10 and 20, and a spacer 30 provided in a spacer region at the peripheries of the glass plates 10 and 20 between the glass plates 10 and 20, wherein a region surrounded by the spacer 30 and the glass plates 10 and 20 constitutes a hollow layer 15. The multi-layered glass further comprises: a check valve 40 which penetrates the spacer 30, one end of which communicates with the hollow layer 15 and the other end of which projects to the outside air side, thereby moving gas from the hollow layer 15 to the outside air side; and a butyl-based sealing member 50 for sealing the check valve 40 and the spacer 30. At least one check valve 40 is attached to the at least one spacer 30. The butyl-based sealing member 50 seals a gap between the portion of the check valve 40 projecting to the outside air side and the spacer 30.SELECTED DRAWING: Figure 3