13 results about "Glass composites" patented technology

The application discloses a novel fluorescent powder and a fluorescent powder glass composite material containing the same, and belongs to the field of solid-state luminescent materials. The application significantly improves the thermal stability of the fluorescent powder by constructing an inorganic oxide film layer on the surface of the fluorescent powder. Meanwhile, on the basis of selecting a borosilicate system as a matrix glass, the application innovatively introduces a TiO2-ZnO-Li2O ternary synergistic system, effectively solving technical problems such as insufficient thermal conductivity, easy interface reaction and refractive index mismatch of the fluorescent glass. The prepared fluorescent powder glass composite material can generate high-quality ideal white light under the excitation of a blue LED chip, meeting the demand of new energy automobile headlight systems for high efficiency, long service life and good environmental adaptability. In addition, the preparation process provided by the application is simple and low in cost, the obtained product is excellent in thermal conductivity, and is suitable for large-scale production.

This invention discloses a nanomaterial-reinforced cured glass composite material. The formulation of this nanomaterial-reinforced cured glass composite material includes silicate-based glass, siloxane nanoparticles, zirconia nanoparticles, carbon nanotubes, and a surface modifier. This material forms a coating with excellent smoothness, hydrophobicity, and thermal shock resistance on the inner wall of the exhaust pipe, preventing the adhesion and accumulation of volatile nuclides. By optimizing process parameters, such as ultrasonic power and ball milling time, a nanomaterial-reinforced cured glass composite material adaptable to high-temperature, high-pressure, and acid / alkali environments is prepared. When applied to the inner wall of the furnace exhaust pipe, this material effectively prevents the accumulation of harmful substances, solves the problem of exhaust pipe blockage, and improves environmental protection and production efficiency. This innovative technical solution has significant industrial application prospects and can achieve considerable economic and environmental benefits in high-level radioactive waste treatment systems.

The application discloses a kind of high expansion heat-conducting ultra-low temperature sintered glass composite material and preparation method thereof, belong to electronic packaging material technical field.The composite material is composed of titanium boron silicon glass (T-BS) matrix (93-100wt%) and flaky hexagonal boron nitride (h-BN) / flaky alumina filler (0-7wt%), T-BS glass chemical composition is 25-28%, 9-13%, 0.5%, 32-34.5%, 2.5%, 10-20%, 1-10%, 1%, 2-10%, 1.5%.Composite material thermal expansion coefficient 15-17× / ℃, thermal conductivity coefficient 1.04-1.12W / (m·K), bending strength 60-100MPa, can be sintered in ≤540℃ air without pressure, resistant to acidic electroplating liquid corrosion.Preparation method includes glass powder preparation, composite powder mixing, dry pressing / casting forming and low temperature sintering, process is simple, low in cost.The application solves the problems of insufficient expansion coefficient, poor thermal conductivity, high sintering temperature and poor corrosion resistance of existing high expansion inorganic substrate, and is suitable for semiconductor packaging adapter plate, high thermal conductivity substrate and ULTCC component manufacturing.

The utility model discloses a kind of double steel laminated glass composite equipment, belong to laminated glass production field, including conveyer, the upper side of conveyer is provided with frame, the right end rear side of frame is fixedly installed with motor, the right end in frame is fixedly installed with fixed plate, the right end in frame is rotatably installed with pivot, two groups of first sliding block are slidably installed on pivot, the lower end of two groups of first sliding block is fixedly installed with limit plate, the fixed plate and two groups of limit plate are all set with sliding slot in, three groups of one-way screw rod are rotatably installed in sliding slot, and second sliding block is threadedly connected on three groups of one-way screw rod;Through the cooperation between above each device, and then cutting and taking out the protruding film of laminated glass right side and front and back two sides, so that the equipment can automatically adjust and cut film, avoid the tedious and error of manual operation, greatly improve production efficiency and product quality.

An epoxy resin-water glass composite grouting material is disclosed, comprising: epoxy resin, polyurethane prepolymer, hydrophobic nano-silica, silica powder, modified amine curing agent, water glass, calcium-based bentonite, and DMP-30 accelerator. The invention also includes a method for preparing the epoxy resin-water glass composite grouting material. This invention, through the synergistic effect of multiple components, significantly improves the degree of curing of the material, enhances the curing quality in water-rich environments, forms a stable reinforced structure, and solves the problem of underwater curing of epoxy materials. It exhibits high impact strength, strong material toughness, and a short gel time, reducing engineering costs by more than 40% while ensuring material performance.

This invention discloses a high-strength bonding method for alumina-glass composite interlayer solder and alumina ceramics, belonging to the field of advanced ceramic material bonding technology. The method uses a mixture of nano-alumina powder and rare-earth glass powder in a certain proportion as an interlayer, and bonds the alumina ceramics under low temperature and low pressure while protected by a nitrogen atmosphere. The difference in thermal expansion coefficient between the composite interlayer weld and the base material is less than 1%, and this joint exhibits better compactness and superior mechanical properties compared to a pure nano-alumina powder interlayer joint under the same bonding conditions.

This utility model relates to a building curtain wall with an intelligent dimming structure, belonging to the field of building curtain wall technology. The building curtain wall with an intelligent dimming structure includes ultra-clear glass, with two mounting glass panes on one side; a dimming mechanism, located on one side of the ultra-clear glass, which can effectively dim the light of the building curtain wall; the mounting glass, PVB, and translucent stone form a stone-glass composite. The thinness of the translucent stone improves its light transmission effect and creates a hazy, three-dimensional light and shadow layer, enhancing the aesthetics of the building curtain wall. An anti-UV coating further improves the light transmission effect of the translucent stone. The ultra-clear glass reduces light refraction loss. Polycarbonate achieves total internal reflection transmission through its microstructure surface. A multi-layered hollow structure optimizes uniform light diffusion, forming a three-level light control system of "transparency-partial obscuration-soft light," which can adjust the illumination and improve the dimming effect of the building curtain wall.

The application relates to the technical field of solid electrolytes, in particular to a co-doped sodium-based sulfide solid electrolyte and a preparation method and application thereof, wherein a Na2S-NaD nanoeutectic precursor is prepared by pre-high-energy ball milling of a sodium source and sodium halide, then the precursor is mixed with the remaining raw materials and sintered at a low temperature of 300-450 DEG C, so that the product forms a nanocrystal-glass composite structure which cannot be obtained by a traditional high-temperature solid-phase method. The unique structure can eliminate the inherent grain boundary impedance of the crystalline material, provide isotropic and continuous three-dimensional transmission channels for sodium ions, significantly reduce the diffusion barrier, and realize ultra-high ionic conductivity far exceeding that of the same-component crystalline material. Meanwhile, the application realizes multi-element synergistic doping by adopting the main group elements M of IV / V to partially replace the position of phosphorus elements and co-substitute the cations with fixed tungsten element doping, so that the lattice can be stabilized, stress can be released, the sodium ion diffusion barrier can be reduced, and the synergistic improvement of high air stability, high structural stability and high ionic conductivity can be realized.

The application discloses a kind of high-flux metal-organic framework crystal glass composite membranes and its preparation method and application, belong to gas separation membrane technical field.The composite membrane is by crystalline MOFUiO-66-COOH and MOF glass phase Zn-P-dmbIm be made into film by melting-quenching method composition.The mass ratio of crystalline UiO-66-COOH and glass phase Zn-P-dmbIm is preferably 3:7.The preparation method includes respectively preparing UiO-66-COOH and Zn-P-dmbIm, after mixing, is pressed into film under pressure, then in protective atmosphere melting-quenching treatment.The prepared composite membrane has good interface compatibility, high mechanical strength and excellent gas separation performance, and shows high selectivity and high flux in oxygen / nitrogen separation.

An Er:YAG nanocrystal glass composite optical fiber and a preparation and application thereof, the Er:YAG nanocrystal glass composite optical fiber sequentially comprises a core, a cladding and a protective sleeve from inside to outside, wherein the core material is 2-6 mol% Er 3+ :YAG transparent ceramic, the light transmittance in the near-infrared region reaches 80% or more; the cladding material is high-purity quartz glass, the purity is 99.9% or more; the protective sleeve material is acrylic resin paint; the preparation method does not need post-treatment, is based on a melt core method, and by introducing a rear feeding process, element mutual diffusion between the core and the cladding is effectively inhibited, so that the Er 3+ :YAG nanocrystal structure can still be reserved in the core during the high-temperature drawing process; the existence of the nanocrystal causes splitting of the Er 3+ energy level, so that a super-wide gain spectrum is obtained, and the Er:YAG nanocrystal glass composite optical fiber is applied to a wideband tunable laser.

This invention discloses a highly stable sodium ion adsorbent material, its preparation method, and its applications. The material is a K₂O-SiO₂-Al₂O₃-based crystal-glass composite material, comprising, by mass percentage of oxides: 30-60 wt% SiO₂, 1-11 wt% Al₂O₃, 0-25 wt% TiO₂, 0-20 wt% ZrO₂, and 30-60 wt% K₂O. After heat treatment, the material forms a crystal-glass composite structure with a crystallinity of 5%-30%. This material maintains its ability to adsorb sodium ions from reinforced salts. + While increasing adsorption capacity, it also reduces K + It improves the migration rate in the residual glass phase, inhibits precipitation and fogging under humid and hot conditions, reduces leaching and enhances the pH rise of the salt, and improves the stability of high-temperature salt bath use.

This application provides an application of a high-transmittance glass composite material in a glass button touchscreen. The glass button touchscreen includes a button layer and a display module. The button layer includes an upper glass cover and a lower glass cover, which are bonded together using a first optical adhesive. The preparation method of the upper glass cover includes: preparing a high-transmittance glass composite material; chemically etching the high-transmittance glass composite material; chemically strengthening the high-transmittance glass composite material; and coating an anti-glare coating on the outer side of the high-transmittance glass composite material. The anti-glare coating includes a nano-silica layer and a nano-titanium dioxide layer stacked sequentially. The anti-glare coating can form a submicron-level uneven structure and different refractive index interfaces on the surface of the upper glass cover, reducing the Fresnel reflection effect and achieving a synergistic effect of high light transmittance and anti-glare.