100 results about "Fritted glass" patented technology

An apparatus and process for making glass soot sheet and sintered glass sheet. Glass soot particles are deposited on a curved deposition surface of a rotating drum to form a soot sheet. The soot sheet is then released from the deposition surface. The soot sheet can be sintered into a consolidated glass. The soot sheet and the sintered glass can be sufficiently long and flexible to be reeled into a roll.

An organic EL display device (1) includes an element substrate (30), a sealing substrate (20) facing the element substrate (30), an organic EL element (4) provided on the element substrate (30) and between the element substrate (30) and the sealing substrate (20), a first sealing member (5) made of fritted glass and provided between the element substrate (30) and the sealing substrate (20), and configured to weld the element substrate (30) and the sealing substrate (20) to seal the organic EL element (4), a resin member (14) provided between the sealing substrate (20) and the organic EL element (4) and configured to cover a surface of the organic EL element (4), and a second sealing member (16) formed of a resin and provided between the element substrate (30) and the sealing substrate (20).

An ultra-thin glass sheet is formed using a roll-to-roll glass soot deposition and sintering process. The sintering involves initially heating and sintering one or more central segments of a glass soot sheet, and progressively heating and sintering glass soot sheet segments that are located laterally or axially adjacent to previously-sintered segments such that, along respective width directions of the glass soot sheet, only a portion of the width is sintered at a given time interval during the heating.

The present invention provides a glass ceramics dielectric material, comprising: a crystallizable glass powder in an amount of from 40% to 100% by mass; and a ceramics powder in an amount of from 0% to 60% by mass, wherein the crystallizable glass powder comprises: SiO2 in an amount of from 35% to 65% by mass; CaO in an amount of from 10% to 30% by mass; MgO in an amount of from 10% to 20% by mass; and ZnO in an amount of from 0.5% to 35% by mass, and wherein the material is capable of forming: diopside, CaMgSi2O6, as crystals; and at least one of hardestnite, Ca2ZnSiO7, and willemite, Zn2SiO4, as crystals; and a sintered glass ceramics, comprising: diopside, CaMgSi2O6, as crystals; and at least one of hardestnite, Ca2ZnSiO7, and willemite, Zn2SiO4, as crystals.

The invention relates to glass compositions and glass frit composites for use in optical applications, and a method of making a light emitting diode package through the glass frit composites. The method includes sintering a glass frit composite to form a phosphor-containing layer comprising phosphor dispersed in a glass matrix. The phosphor-containing layer is positioned, such that light from a light emitting diode is transmitted through the phosphor-containing layer. The glass frit composite includes a glass frit formed from a sintered mixture. The sintered mixture includes glass frit formed by firing a mixture including about 20-60 mole % SiO2, about 14-50 mole % ZnO, and about 3-28 mole % B2O3. The sintering temperature of glass is relatively low, so that fluorescence of phosphor isn't obviously degraded in a sintering process. The phosphor-containing layer can be used in optical applications, including conversion of blue light to white light with different color temperatures.

The invention relates to the antireflection film technology, and discloses a method for preparing a glass surface antireflection film without sintering. The method adopts tetraethyl orthosilicate as a raw material; a silica sol is obtained by acid catalysis; a coating sol is obtained by adding a certain amount of templates; a film is coated on a clean glass surface by a czochralski method, and isdried at 80 DEG C-120 DEG C for 24 h. The templates are removed by 80 DEG C hot water or ethanol through ultrasonic cleaning to obtain a glass surface antireflection film which has a maximum transmittance of up to above 99% and an average transmittance of up to above 96% in the visible region. Compared with the prior art, the invention has the advantages that firm binding of the glass surface antireflection film and the glass is guaranteed; higher transmittance is provided; and the preparation process of the antireflection film does not require high-temperature sintering.

Pastes for use in producing sintered frit patterns (14) on glass sheets (12), such as the glass sheets used as covers for OLED (18) display devices (10), are provided. The pastes include glass particles, filler particles, and a vehicle. The sizes of the filler and/or glass particles are reduced compared to prior art pastes. Reductions in porosity and surface roughness of sintered frits produced using the pastes, as well as improvements in the available process window for producing OLED packages and the hermeticity and strength of those packages, are reported.

The invention discloses a glass sealing structure and a manufacturing method thereof. The glass sealing structure comprises a first glass substrate, a second glass substrate and a glass cement material. The coefficients of thermal expansion of the first glass substrate and the second glass substrate are different, and the coefficient of thermal expansion of the glass cement material is between the coefficients of thermal expansion of the first glass substrate and the second glass substrate. A sealed space is formed among the first glass substrate, the second glass substrate and the glass cement material, and an organic luminous element is arranged in the sealed space. The manufacturing method comprises the following steps of: providing the first glass substrate and the second glass substrate; coating the glass cement material on the second glass substrate; heating and hardening the glass cement material; pairing the first glass substrate and the second glass substrate; and sintering the glass cement substrate so as to joint the two glass substrates.

This invention is about metal tubing/frit applicable in liquid chromatography and a chromatography column manufactured by using the same. In detail, this invention is about manufacturing the metal tubing/frit by treating a powdered inorganic oxide such as silica, alumina, zirconia, and titania with a strong base, drying it with some humidity included, scrubbing it into powders, putting it in the tip of a chromatographic metal tubing at a proper depth, and by sintering the powders to form a durable sintered frit on the inner wall. This invention is also about a liquid chromatographic column manufactured by installing the metal tubing/frit's with a sintered end frit at the column inlet and outlet unions and by placing the cylinder-like column main body tubing packed with a stationary phase between the unions. The metal tubing/frit manufactured according to the description above is not placed inside the column as in the conventional column design, thus it is easily replaced and fixed without disassembling the column, and the column of this design can displace the conventional microcolumn of complicated production process and high cost.

The invention relates to a low-temperature acid-resistant sintered glass powder, which comprises the following raw materials in percentage by weight: 30-70% of SiO2, 1-20% of B2O3, 1-10% of Al2O3, 1-20% of BaO, 1-20% of ZnO, 1-10% of TiO2, 1-20% of Na2O, 1-20% of K2O, 1-10% of CuO, 1-10% of MnO2 and 1-10% of P2O5, wherein the ratio of BaO to ZnO in percentage by weight is more than 1 and less than 2 and the total percentage by weight of Na2O and K2O is 6-25%. The preparation process of the sintered glass powder comprises the following steps: weighing, mixing materials, melting, tabletting, ball-milling and screening. The sintered glass powder has the advantages of low sintering temperature, high airtightness, high chemical durability and high acid resistance, and can be used for the inorganic adhesive phase of electroconductive electronic slurry, the glass paste used for a protective coating and etc.

The invention discloses a graphite furnace for sintering glass loose mass. The graphite furnace comprises a graphite furnace body provided with a mounting hole at one end and a quartz tube connected with the other end of the graphite furnace body, wherein an air outlet end of the quartz tube extends out of the mounting hole. The graphite furnace further comprises a sealing device arranged at the mounting hole of the graphite furnace body and used for sealing the mounting hole, wherein the sealing device is provided with an air inlet unit; and the joint of the graphite furnace body and the quartz tube is provided with an air exhausting device. In the embodiment of the invention, the graphite furnace body is set as a sealed structure by the sealing device, and the air inlet unit and the air exhausting device are arranged on the graphite furnace body. In the production process, when a process gas is introduced into the quartz tube, a protective gas is introduced into the sealed graphite furnace through the air inlet unit to increase the external pressure of the quartz tube, thus the balance between internal pressure and external pressure of the quartz tube is guaranteed to prevent the quartz tube from deformation. Consequentially, the service life of the graphite furnace is prolonged effectively.

The present disclosure provides a packaging method, a display panel, and a display device. The packaging method includes forming a glass adhesive on a packaging area of an OLED array substrate or on a packaging cover plate, aligning the packaging cover plate with the OLED array substrate, and applying, from a side of the packaging cover plate facing away from the OLED array substrate a laser to the glass adhesive, to sinter the glass adhesive, wherein the packaging method further includes forming a barrier layer on the packaging cover plate, the barrier layer being configured to block the laser from irradiating an OLED device on the OLED array substrate when the laser irradiates the glass adhesive.

Disclosed herein are a glass sealing package and a manufacturing method thereof. The glass sealing package includes a first glass substrate, a second glass substrate and a frit. The coefficient of thermal expansion of the frit lies between that of the two glass substrates. A light emitting element on the first glass substrate is situated in a sealed room formed among the two substrates and the frit. The method includes the steps of proving a first and a second glass substrate, dispensing a frit on the second glass substrate, pre-sintering the frit, assembling the two substrates, and sealing the frit to join the two substrates.

The present invention provides an OLED package structure and a packaging method. The structure includes a substrate (1), a package lid (2) opposite to the substrate (1), an OLED device (12) located between the substrate (1) and the package lid (2) and mounted on the substrate (1), a solid resin film (22) located between the substrate (1) and the package lid (2) and arranged on the package lid (2) to completely cover the OLED device (12), an inorganic protective frame (11) arranged on the substrate (1) and located outside an outer circumference of the solid resin film (22), adhesive (23) applied on the package lid (2) to bond the inorganic protective frame (11) and the package lid (2) to each other, and fritted glass (21) arranged outside an outer circumference of the inorganic protective frame (11) to bond the substrate (1) and the package lid (2) to each other. The present invention provides an arrangement where the inorganic protective frame is arranged inboard the fritted glass to effectively strengthen air tightness achieved with the fritted glass. Further, the solid resin film is arranged on the package lid to cover the OLED device so as to further strengthen the capability of the OLED package structure for blocking moisture and also, a gap in the interior of the sealed object is lessened so as to provide a sufficient mechanical strength to extend the lifespan of the OLED device.

The invention discloses an environment-friendly high-phosphorus chemical nickel plating solution for an airtight glass-sealed binding terminal. The environment-friendly high-phosphorus chemical nickel plating solution comprises the following active ingredients according to concentration: 25-27g/L nickel sulfate, 19-22g/L sodium hypophosphite, 20-23g/L sodium hydroxide, 41-44g/L lactic acid, 1.5-2.3g/L trisodium citrate, 13-15g/L malic acid, 8-12g/L glycine, 0.2-0.4ml/L OP-10, 0.26-0.3g/L stannous chloride, 0.26-0.34g/L maleic anhydride and 3-5mg/L N,N-diethylaminopropyne. The invention discloses a method for performing chemical plating by adopting the chemical nickel plating solution. A stainless steel needle and an iron cover can be simultaneously subjected to chemical nickel plating and be evenly plated, no nickel nuclear generated on sintered glass can be guaranteed, and the difficulty in keeping the smoothness and cleanness of the surface of glass can be solved.

The invention relates to a method for preparing a potassium sodium niobate functional ceramic film on a glass base surface by using a laser, belonging to the field of electronic functional ceramic preparation. The method comprises the following steps: selecting raw materials, weighing according to the stoichiometric proportion of Na0.5K0.5NbO3, mixing, carrying out ball milling, presintering at 800 DEG C for two hours by the traditional molten salt method to prepare the required functional ceramic powder; and evenly mixing and flatly laying ceramic powder and PVA (polyvinyl alcohol) on a glass base surface, drawing the functional ceramic film with required shape and dimension by using control software of the selected laser device, and selecting a pulse laser to directly sinter the powder on the glass base by using proper technological parameters, thereby obtaining the required ceramic film. The invention firstly provides and then directly prepares the potassium sodium niobate piezoelectric ceramic film on the glass base; and the invention is simple and quick to operate and has strong controllability.

For a display device and manufacturing method for the display device, the method comprises steps of: disposing a plurality of recesses on the cover body; coating glass frit in the recesses; sintering the glass frit for forming sintered blocks; disposing display auxiliary members on the cover body having the sintered blocks formed thereon; and irradiating the sintered blocks by laser to combine the cover and the display substrate with the sintered blocks.

The present invention can prevent the display auxiliary members of the cover from being damaged in the packaging process of the display device.

A unitary structure (10) is comprised of two or more planar substrates (30, 40) fused together by a glass or glass-ceramic sintered frit structure (20) disposed therebetween. The pattern of the sintered patterned frit material defines passages (70) therein, and the sintered frit structure (20) has a characteristic minimum feature size (60) in a direction parallel to the substrates. Particles of the frit material have a poly-dispersed size distribution up to a maximum frit particle size, in a maximum length dimension, and the minimum feature size or dimension (60) of the sintered patterned frit material is greater than 2 times the maximum frit particle size, desirably about 3 times or more, and less than 6.25 times the maximum frit particle size, desirably about 5 times or less, most desirably about 4 times or less. A method for making the structure (10) is also disclosed.

The invention relates to the field of purification and disinfection of air and water. A photocatalytic ele -ment consists of sintered glass beads with a pore volume fraction from 20% to 40% and a pore size from 0.1 to 0.5 mm, the surface of which is coated with a titanium dioxide powder, having a specific surface area of 150-400 m 2 /g, at the rate of 0.5-2%o relative to the total mass of the photocatalytic element. Furthermore, the surface of the glass beads has a relief shape with a relief depression of 0.5-10 urn. The method for producing the photocatalytic element comprises sintering the glass beads at a temperature that is 5-20°C higher than the glass softening temperature, modifying the bead surface with chemical etching agents, and coating the bead surface with the titanium dioxide powder from a water suspension at a pH of 2.9±0.1. The invention provides for the production of a photocatalytic element that is characterised by a strong adhesion and retention of the titanium dioxide powder on the surface of the carrier in the flow of a medium which is subjected to purification, and that has a high photocatalytic activity