183 results about "Glass matrix" patented technology

The invention discloses high-transparency explosion-proof glass and a preparation process thereof, and the preparation process comprises the following steps: uniformly mixing a glass substrate and Al2O3 nanoparticles in proportion, and heating until a molten state to obtain a liquid glass matrix; the method comprises the following steps: introducing a liquid glass matrix into a forming mold, and pre-cooling the liquid glass matrix to enable the liquid glass matrix to be in a semi-solid state; the method comprises the following steps: applying directional stress to a semi-solid glass substrate, and cooling the semi-solid glass substrate to obtain a compression layer, so that the glass is of a hard-soft-hard layered structure; directional stress is applied to the semi-solid glass substrate, so that Al2O3 nanoparticles are uniformly enriched on two surfaces of the glass substrate and are quickly cooled, a compression layer is formed on the surface of the glass, and a relatively small tensile stress layer is formed inside the glass, so that the glass is of a hard-soft-hard layered structure, external force impact can be effectively absorbed and dispersed, and the service life of the glass is prolonged. Stress concentration and crack propagation are avoided, the internal structure of the glass is protected, and the anti-explosion performance and durability of the glass are improved.

The invention belongs to the technical field of glass materials, and discloses thermal shock resistant transparent high borosilicate glass which comprises the following components in percentage by weight: 60-70% of silicon dioxide, 18-22% of diboron trioxide, 4-7% of aluminum oxide, 3-5% of magnesium oxide, 2-4% of alkali metal oxide, 0.5-1.5% of nano silicon nitride and 0.5-1% of nano aluminum titanate. The thermal shock temperature difference of the glass within the temperature change range of 20-200 DEG C is larger than or equal to 180 DEG C, the light transmittance within the visible light range of 400-760 nm is larger than or equal to 85%, the alkali metal oxide is composed of sodium oxide and potassium oxide, the weight ratio of the sodium oxide to the potassium oxide is 1: 1-3: 1, the average particle size of the nanometer silicon nitride is smaller than or equal to 100 nm, and the nanometer silicon nitride is evenly dispersed in the glass matrix; according to the thermal-shock-resistant transparent high borosilicate glass and the preparation method thereof, the thermal shock resistance and light transmittance of the glass are improved by optimizing the chemical components of the glass and adding the special nanoparticles in cooperation with a specific preparation process, and the thermal shock resistance of the glass is improved. The problems that existing high borosilicate glass is insufficient in thermal shock resistance and low in light transmittance in a high-temperature environment are solved.

The present invention discloses a heat-insulating, sun-proof and self-cleaning multifunctional glass and a preparation method thereof, wherein the multifunctional glass comprises a modified glass substrate and a photochromic heat-insulating layer and a surface functional protective layer sequentially compounded on the surface of the modified glass substrate; the surface functional protective layer comprises a super-hydrophobic nanostructure layer and a self-cleaning functional layer sequentially arranged from the inside to the outside; the photochromic heat-insulating layer is a photothermal response layer with a gradient doping distribution of tungsten oxide nanoparticles, wherein the doping density of the tungsten oxide nanoparticles close to the side of the modified glass substrate is low, and the doping density of the tungsten oxide nanoparticles far from the side of the modified glass substrate is high; the super-hydrophobic nanostructure layer is mainly composed of fluorosilane-modified SiO2 nanoparticles; the self-cleaning functional layer is a TiO2 film deposited on the surface of the super-hydrophobic nanostructure layer by plasma enhanced chemical vapor deposition. Compared with the prior art, the glass of the present invention has multiple functions such as excellent heat insulation, sun protection and self-cleaning.

The invention relates to the technical field of glass, in particular to low-emissivity coated glass and a preparation method thereof.The preparation method comprises the following steps that a glass matrix is immersed into a sufficient hydrochloric acid solution with the mass fraction of 2% for ultrasonic treatment, the ultrasonic power is 350-400 W, ultrasonic treatment is conducted for 1 h, and after ultrasonic treatment is finished, washing and drying are conducted; the glass substrate in the first step is coated with a film layer, and the glass with the film layer is obtained. According to the coated glass, the glass matrix is adopted as a raw material, the activity, efficiency and cleanliness of the coated glass are optimized through hydrochloric acid solution treatment, meanwhile, the coated layer treatment is performed, and meanwhile, the improved coating liquid is coated, so that the low-radiation performance, the wear resistance and the easy-cleaning performance of the coated glass are further optimized, and the scrubbing resistance, the high-temperature resistance and the corrosion-resistant stability of the product are coordinately improved.

The invention provides high-transparency rare earth doped fluoride glass and a preparation method thereof, and belongs to the technical field of glass. The calcium fluoride ensures high transparency and chemical stability, the magnesium fluoride improves the ultraviolet transmittance and the mechanical strength, and the barium fluoride optimizes the melting fluidity and the rare earth doping uniformity; aluminum fluoride is added to inhibit crystallization and enhance uniformity, the rare earth element realizes optical function regulation and control, and ammonium fluoride provides a fluorine source and reduces impurities; in a preparation link, quick lime is dedusted and then reacts with pure water in proportion, impurities in a calcium nitrate solution are removed by hydrogen peroxide, uniform growth of calcium carbonate crystal nucleuses is controlled by ammonia water and carbon dioxide, and calcium fluoride is synthesized by hydrofluoric acid in proportion and dried at low temperature after plate-frame pressure filtration and purification; after the raw materials are refined through ball milling, the melting temperature is controlled in stages, impurities, reaction integrity and a microstructure are accurately controlled in the whole process, and finally the high-transparency functional glass is prepared.

The present invention discloses a perovskite quantum dot glass with enhanced luminescence capability, a preparation method thereof, and an application thereof, and belongs to the field of perovskite quantum dot glass display technology. The present invention regulates the network structure of borosilicate glass by adding ZrO2, so that the perovskite quantum precursor glass gradually changes from self-crystallization to transparency and finally to devitrification, the network structure of the glass matrix is ​​ordered, the surface defects at the interface between the perovskite quantum dots and the glass matrix are passivated, and the radiation recombination probability is increased, thereby obtaining a perovskite quantum dot glass with significantly improved photoluminescence performance. The perovskite quantum dot glass has a green light emission wavelength of 527nm, a full width at half maximum (FWHM) of 25.8nm, an internal quantum dot efficiency of 93.1%, and a brightness of 375cd / m ‑2 The maximum green light brightness under the excitation of the blue light (450nm) plate can reach 2647cd / m ‑2 When this perovskite quantum dot glass is used as an LED backlight module in LCD display, it can achieve a color gamut area of ​​118% of the NTSC standard, which is 1.73 times the color gamut of commercial displays, achieving a wide color gamut display effect.

The invention belongs to the technical field of new materials, and discloses a composite material, a preparation method thereof and automobile glass, the composite material is a curved surface, and comprises a composite matrix, a glass plate and an organic back plate from bottom to top in sequence; wherein the composite matrix comprises a plurality of transparent ceramics and a glass matrix, and the plurality of transparent ceramics are spliced and laid in the glass matrix to form a structure that the glass is filled with the transparent ceramics. According to the invention, glass is taken as a matrix, a plurality of transparent ceramics are taken as filling bodies to form a composite matrix structure of partitioned transparent ceramic filled glass, and the composite matrix structure is compounded with a glass plate and an organic back plate, so that the composite material of the curved transparent ceramic filled glass with high safety, light weight, large size (1000mm * 1800mm) is obtained, the light transmittance is 64.2-81.2%, and the bending strength reaches 168.4-213.7 MPa.

The invention belongs to the technical field of enamel glaze, and particularly relates to enamel glaze based on transient template in-situ reaction and a preparation method and application thereof. The enamel glaze is prepared by mixing basic enamel glaze slip and a core-shell structure functional precursor, wherein the basic enamel glaze slip is water suspension prepared by mixing and grinding basic enamel frits and auxiliaries; the core-shell structure functional precursor is inorganic composite powder, and the original structure of the core-shell structure functional precursor is as follows: silicon nitride micron particles are used as a core, and a layer of Y-Zr-Ti composite oxide is coated on the surface as a shell. According to the invention, a real chemical bonding strong interface is realized, and a firm chemical bond is constructed in situ between a reinforced phase and a glass matrix by using a high-activity oxide shell layer as a solder in a final sintering stage. The problem that an interface is weak in traditional physical blending is fundamentally solved, and stress can be effectively transmitted from a matrix to a high-strength reinforced phase.

This invention discloses a method for preparing high rare-earth-doped low-loss boron-containing glass optical fibers. The steps are as follows: weigh glass raw materials containing rare-earth oxides and boron oxide, mix them uniformly, and place them in a high-temperature furnace. First, heat the mixture under a high-purity nitrogen atmosphere, then switch to a high-purity oxygen atmosphere or a high-purity air atmosphere for continued heating. The resulting glass melt is cooled and annealed to obtain a large glass block. The glass is then processed into a preform and placed in an optical fiber drawing furnace for fiber drawing under a high-purity oxygen atmosphere, thus achieving the preparation of high rare-earth-doped low-loss glass optical fibers. This invention eliminates the additional glass matrix absorption in the near-infrared region caused by boron in boron-containing glass optical fibers and also transforms the transition metal impurity ions from a low valence state with broad absorption in the near-infrared region to a high valence state with narrow low absorption in the near-infrared region. Both of these aspects significantly reduce the matrix absorption of boron-containing glass optical fibers, providing possibilities for the application of high rare-earth-doped low-loss glass optical fibers.

This invention relates to a glass cover with an outer frame, wherein a flat glass plate is directly joined to the outer frame, wherein the glass matrix within the outer frame comprises at least one of bismuth oxide and boron oxide, and the glass ceramic has a coefficient of thermal expansion of 15 × 10⁻⁶. －7 In the glass ceramics described above, the total volume fraction of the negative thermal expansion filler and the total volume fraction of the filler components are both 40% to 65%, and the softening point of the glass components in the glass matrix is ​​lower than the glass transition point of the flat glass.

The invention belongs to the technical field of preparation of amorphous composite materials, and particularly relates to a metallic glass / graphite composite material with a mineral bridge structure and a preparation method of the metallic glass / graphite composite material. Comprising the following steps: etching a plurality of graphite flakes by adopting a laser processing mode, and forming a plurality of holes which are uniformly distributed in each graphite flake; the graphite flake layers are uniformly distributed and arranged in the thickness direction and then fixed, a metal glass matrix is melted and then injected, all the graphite flake layers and all the open pores are filled with the metal glass matrix in a suction casting mode, a metal glass layer is formed on the surface of each graphite flake layer in a suction casting mode, and the metal glass / graphite composite material is obtained. According to the invention, the uniformly distributed open pore structures are formed on the surface of the graphite flake through a laser processing technology, and the graphite flake layer forms a mineral bridge structure among all the metal glass layers, so that strong binding force is formed between the graphite flake and the metal glass substrate, the graphite flake is ensured not to fall off easily under high load or impact load, and the stability is greatly improved.

The application relates to a nonlinear optical glass, comprising a glass matrix and noble metal nanocrystals doped in the glass matrix, wherein the mass fraction of the glass matrix in the nonlinear optical glass is greater than or equal to 40%, and the composition of the glass matrix is xBi2O3-(66-x)P2O5-yZnO-(34-y)Al2O3 in terms of a mole fraction, 1 < x < 21, and 26 < y < 32. The application further provides a preparation method and application of the nonlinear optical glass. The nonlinear optical glass can realize high-concentration doping of noble metal nanocrystals and improve the third-order nonlinear performance of the nonlinear optical glass.

The invention provides an optical fiber image transmission element for X-ray detection and a preparation method and application thereof. The optical fiber image transmission element comprises an optical fiber image transmission element; the quantum dot glass layer is arranged at the image transmission end of the optical fiber image transmission element; the quantum dot glass layer adopts CsPbX3 quantum dot glass, and X is at least one of Cl, Br and I; in the CsPbX3 quantum dot glass, the surface of the CsPbX3 quantum dot is covered with a glass matrix. According to the optical fiber image transmitting element for X-ray detection, the surface of the CsPbX3 quantum dot is covered with the glass matrix, contact with water and oxygen is effectively avoided, the long-term stability of the quantum dot is improved, and the optical fiber image transmitting element has low detection lower limit and high sensitivity and is more practical.

The invention discloses high-strength photoelectric glass and a preparation method thereof, and relates to the field of photoelectric glass, and the high-strength photoelectric glass comprises the following components: 60-75% of silicon dioxide, 8-15% of aluminum oxide, 5-12% of boric oxide, 3-8% of potassium oxide, 1-5% of lithium oxide, 2-6% of titanium oxide, 0.5-2% of rare earth oxide, and 1-3% of a reinforced fiber material. Glass components are optimized, the strength and optical performance are remarkably improved, the proportion of basic components such as silicon dioxide and aluminum oxide is scientifically adjusted, and new components such as boron oxide, potassium oxide and lithium oxide are introduced to optimize a glass network structure; the rare earth oxide is added, and the special optical and physical properties of the rare earth oxide are utilized, so that the glass performance is further improved; a reinforced fiber material is added, reinforced fibers are tightly combined with a glass matrix, and a framework supporting effect is achieved. Through the synergistic effect of multiple components, the Vickers hardness of the high-strength photoelectric glass is increased to 600 HV or above, the light transmittance is larger than or equal to 90%, and the strength and the optical performance are remarkably improved.

The invention discloses a passivation method of a perovskite quantum dot and the perovskite quantum dot. The method comprises the steps that a mixed raw material is ground and then subjected to hot melting treatment, a molten material is obtained, and the mixed raw material comprises a glass matrix raw material, a lead source, a substance containing halogen elements and a cesium source; performing first heat treatment on the molten material to obtain 113-phase perovskite quantum dots of which the outer layers are coated with glass bodies; the 113-phase perovskite quantum dots with the outer layers coated with the glass bodies are subjected to second-time heat treatment, 416-phase perovskite quantum dots are formed on at least part of the surfaces of the 113-phase perovskite quantum dots, passivated perovskite quantum dots are obtained, and the temperature of the first-time heat treatment is higher than that of the second-time heat treatment. By adopting the method provided by the invention, the blue light stability of the perovskite quantum dots can be improved.

An optical parametric device (OPD), which is selected from an optical parametric oscillator (OPO) or optical parametric generator (OPG), is configured with a nonlinear optical element (NOE) which converts an incoupled pump radiation at first frequency into output signal and idler radiations at one second frequency or different second frequencies, which is / are lower than the first frequency, by utilizing nonlinear interaction via a random quasi-phase matching process (RQPM-NOE). The NOE is made from a nonlinear optical material selected from optical ceramics, polycrystals, micro and nanocrystals, colloids of micro and nanocrystals, and composites of micro and nanocrystals in polymer or glassy matrices. The nonlinear optical material is prepared by modifying a microstructure of the initial sample of the NOE such that an average grain size is of the order of a coherence length of the three-wave interaction which enables the highest parametric gain achievable via the RQPM process.

The present application is generally directed to compositions and methods for forming glass matrices which may exhibit anti-Stokes fluorescence. The glass matrices of the present disclosure are formed such that a thermal characteristic can be tuned, such as the extent to which cooling by anti-Stokes fluorescence occurs. Optical fibers, such as those used in lasers, may be formed out of the presently described glass matrices. In embodiments, glass matrices of the present disclosure may form a cladding layer around an optical fiber. Further, glass matrices of the present disclosure may be used in combination with a device or to provide cooling to said device.

The present invention provides a manufacturing method for optical fiber preforms that satisfies one or more of the following criteria: a method that produces as little manufacturing waste as possible, a method that produces a preform with the most uniform doping possible, a method that is as simple as possible to implement, and a method that is as cost-effective as possible. [Solution] A method for manufacturing an optical fiber matrix includes: a step of synthesizing glass particles using a plasma zone generated by a plasma generator; b step of repeatedly moving the glass matrix forward and backward in the axial direction relative to the plasma generator while the glass matrix is ​​rotating, wherein the forward and backward movement is performed at a relative supply speed between two reversal points; and c step of depositing glass particles on the glass matrix while the glass matrix is ​​moving and rotating relative to the plasma generator.

An expressway ground surface settlement monitoring point is characterized in that a total station arranged at the central road sign of an expressway and beside the road emits light, the light is reflected by the monitoring point and then returns to the total station, the monitoring point comprises a tempered glass base body, a base buried underground and a hemispherical protrusion integrally formed on the base and exposed out of the ground surface; the Porro prism is arranged in the base, the included angle between the central axis L1 of the Porro prism and the perpendicular bisector of the base is recorded as R1, the relational expression that R1 is larger than or equal to 10 degrees and smaller than or equal to 80 degrees is met, and light rays emitted by the total station are emitted into the Porro prism of the base through the hemispherical protrusion and return to the total station after being totally reflected by the Porro prism. The Porro prism is arranged in the toughened glass base body and is arranged at the central road sign of the expressway, and the road settlement is monitored by the light emitted by the total station on the roadside, so that a user is prevented from entering the expressway to set a monitoring point, and the potential safety hazard is reduced. And the influence on the normally running vehicle in the monitoring process is avoided.

The invention relates to pure white light-emitting phosphate fluorescent glass ceramic and a preparation method thereof. The phosphate fluorescent glass ceramic comprises the following components in percentage by mass: 28-38% of P2O5, 6-12% of BaO, 36-48% of ZnO and 14-18% of B2O3, Dy < 3 + >, Tm < 3 + > and Eu < 3 + > are doped in the glass matrix in the form of compounds, and the doped dysprosium-containing compound, thulium-containing compound and europium-containing compound respectively account for 0.25-1%, 0.25-1% and x (0.25% < = x < = 1%) of the total mass of other raw materials. The glass ceramic material has relatively high crystallinity and transparency, the excitation spectrum of the glass ceramic material is in an ultraviolet region, and emission of nearly pure white light can be realized by obtaining a proper Eu < 3 + > doping amount after adjustment. The sample provided by the invention has good thermal stability and excellent luminescence performance, and can be used as a novel fluorescent material applied to the field of luminescence.

The present invention relates to the field of glass technology, and specifically to a low-radiation coated glass and a preparation method thereof, comprising the following steps: a glass substrate is first immersed in a sufficient amount of a hydrochloric acid solution with a mass fraction of 2% for ultrasonic treatment, with an ultrasonic power of 350-400W, ultrasonic for 1h, ultrasonic termination, water washing, and drying; and a coating layer is set on the glass substrate of step 1 to obtain a glass with a coating layer. The coated glass of the present invention uses a glass substrate as a raw material, is treated with a hydrochloric acid solution to optimize its active efficiency and cleanliness, and is then treated with a coating layer, and is simultaneously matched with a coating liquid to further optimize its low radiation, wear resistance, and easy-to-clean performance, as well as coordinately improve the scrub resistance, high temperature, and corrosion resistance stability of the product.

The invention discloses a high-strength impact-resistant glass product and a preparation method of the high-strength impact-resistant glass product in the field of glass, and the high-strength impact-resistant glass product comprises the following raw materials in parts by weight: 50-60 parts of SiO2; 10 to 15 parts of Al2O3; 5 to 8 parts of Li2O; 1 to 3 parts of Na2O; 0.5 to 1.5 parts of K2O; 2 to 5 parts of P2O5; 2 to 4 parts of ZrO2; 1 to 3 parts of TiO2; 1 to 2 parts of B2O3; 0.5 to 2 parts of rare earth oxide; 4 to 12 parts of modified SiC particles; and 1 to 3 parts of modified MoAlB particles. The modified SiC particles and the modified MoAlB particles are adopted as a double-phase reinforcing system, the thermal matching performance with a glass matrix is enhanced, and the strength and toughness of the final glass product are greatly improved under the assistance of the structural densification effect of the rare earth oxide.

The invention discloses novel near-infrared ultrathin fluorescent glass and a preparation method thereof. According to the material, a compound component with the molar ratio of a1% of SiO2-a2% of B2O3-a3% of P2O5-a4% of Al2O3-a5% of BaO-a6CaO-a7% of K2O is used as a glass matrix, Cr < 3 + > doped garnet structure oxide fluorescent nanocrystals are adopted, A3B2C3O12: xCr < 3 + > (A = Ca, La, Y and Lu; b is equal to Sc and Al; c = Ga, Sc or Si) as a near-infrared light-emitting component, and the near-infrared light-emitting material is prepared by combining ceramic tape casting with a low-temperature co-firing process. The novel ultra-thin fluorescent glass provided by the invention can realize high-luminous-efficiency near-infrared fluorescence under excitation of 470nm blue light, and the emission peak value can be regulated and controlled in a range of 750-810nm. The ultra-thin fluorescent glass can be used as a novel near-infrared luminescence conversion material, and has good application prospects in the aspects of improving the conversion efficiency of a solid laser lamp pump, promoting plant growth illumination, biomedical imaging and the like.

The utility model discloses a wavelength conversion assembly and lighting equipment. The wavelength conversion assembly comprises a supporting piece, a reflection unit and a fluorescent glass film. Wherein the reflection unit comprises a first reflection layer and a second reflection layer which are used for reflecting light; the first reflecting layer is connected between the second reflecting layer and the supporting piece, and the thermal conductivity of the first reflecting layer is larger than that of the second reflecting layer. The fluorescent glass film covers the side, away from the supporting piece, of the second reflecting layer and is suitable for being arranged on the light path where the exciting light is located. The fluorescent glass film provided by the utility model is a fluorescent film in which a glass matrix contains fluorescent particles. Therefore, the fluorescent film arranged on the wavelength conversion assembly adopts a glass matrix inorganic packaging mode, and compared with a mode of organic packaging by organic silica gel or resin and the like, the fluorescent glass film has better heat-conducting property, so that the phenomenon that the fluorescent glass film possibly becomes yellow under long-time irradiation of high-power laser is avoided, and the service life of the fluorescent glass film is prolonged. And the excitation efficiency of the excited light is ensured.

The invention relates to a coated substrate made of glass or glass ceramic, the coating having pigment particles embedded in a glass matrix, the average layer thickness of the coating being 2 to 5 [mu] m, the transmittance of the coating being at most 2%, the average particle size d50 of the pigment particles being less than 1.0 [mu] m, and the thickness of the coating being at least 10 [mu] m. Wherein the polydispersity index (PI) of the particle size distribution of the pigment particles is at most 2.0.

The invention belongs to the technical field of electrodes for electrothermal films, and particularly relates to a silver electrode lead wiring method for a semiconductor nano electrothermal device, which is characterized in that a high-temperature-resistant cordierite ceramic matrix and a silver paste electrode on a microcrystalline glass matrix are sintered and cured together at high temperature, and the cordierite ceramic matrix has the excellent characteristic of high temperature resistance; the cordierite ceramic substrate is a silver wire, has stable chemical properties, can be perfectly combined with silver paste on the glass-ceramic substrate, is sintered and fixed in the glass-ceramic substrate without falling off, the silver wire is fixed through the cordierite ceramic substrate, and the silver wire is directly connected with the silver paste on the glass-ceramic substrate in the high-temperature sintering process, so that the connection reliability of the whole wiring part is ensured, and the service life of the whole wiring part is prolonged. Stability of electrifying current and voltage is guaranteed during later electrifying and using, the high-temperature-resistant power supply can stably adapt to work in a high-temperature environment for a long time, and the limitation that a tin welding wire technology cannot be used at a high temperature is overcome.

The invention relates to a luminous phosphate fluorescent glass ceramic for gamma-ray radiation dose detection and a preparation method and application thereof. The glass matrix of the glass ceramic is precursor glass (wt%): Na2O-CaO-P2O5-B2O3-ZrO2, the glass matrix is doped with Gd < 3 + >, Na2CO3, CaCO3, NH4H2PO4, B2O3 and Gd2O3 are used as raw materials, and the Gd < 3 + > ion doped NaCaPO4: x Gd < 3 + > glass ceramic can be obtained by mixing, grinding, calcining, melting and quenching, grinding, compression molding, sintering to a glass softening point and cooling, x is more than or equal to 0.1 and less than or equal to 0.75, NaCaPO4 nanocrystals are separated out, and the Gd < 3 + > ion doped NaCaPO4: x Gd < 3 + > glass ceramic is prepared from the Gd < 3 + > ion doped NaCaPO4: x Gd < 3 + > glass ceramic. The glass ceramic material has high crystallinity and transparency, the excitation spectrum of the glass ceramic material is in an ultraviolet region, and good linear dose response to gamma rays within the range of 0.01-1000 Gy can be achieved by obtaining the appropriate Gd < 3 + > doping amount after adjustment. The sample provided by the invention has good thermal stability and wide radiation dose response performance, and can be applied to the field of radiation dose monitoring as a novel fluorescent material.

The application belongs to the technical field of power generation curtain wall, and discloses a cadmium telluride power generation glass matrix and curtain wall, a mounting groove is formed in the window frame, and a cable connector is arranged in the mounting groove; a first photovoltaic junction box is arranged at the top of the first photovoltaic glass, and the first photovoltaic junction box and the cable connector are electrically connected through a photovoltaic cable; the fan frame is connected to the top of the first photovoltaic glass and is rotationally connected with the window frame; the window frame has an extension part, the extension part is located at the side of the first photovoltaic glass and extends towards the bottom of the first photovoltaic glass, and a wiring channel is formed between the extension part and the first photovoltaic glass; and the photovoltaic cable has an extension amount. The application can realize the electrical connection function without additionally increasing the bridge and the connector, and the structure is more simple and the connection is more reliable. The application further discloses a cadmium telluride power generation glass curtain wall with the cadmium telluride power generation glass matrix.

The present invention discloses an alkali metal sulfide nanocrystal dispersed glass and a preparation method thereof. The alkali metal sulfide nanocrystal dispersed glass comprises a glass matrix and alkali metal sulfide nanocrystals within the glass matrix. The glass components, measured in molar percentage, include: SiO2: 40-70; Al2O3: 0-15; B2O3: 0-15; M2O: 0-30; NO: 0-4; and M2S: 15-45, the sum of which is 100, where M represents an alkali metal element and N represents an alkaline earth metal element. The present invention achieves controllable preparation of alkali metal sulfide nanocrystals in glass through composition design and heat treatment process regulation. The preparation process is simple, the nanocrystal size is controllable, and the cost is low.

The invention discloses a narrow-band emission fluorescent powder-glass composite material for laser fluorescent display as well as a preparation method and application of the narrow-band emission fluorescent powder-glass composite material. The problems of heat accumulation and efficiency attenuation of traditional fluorescent powder under high-power laser irradiation are solved through a rapid compounding process of an ultralow-melting-point glass matrix (SnF2-NaF-P2O5 system) and narrow-band fluorescent powder (such as KSF: Mn and beta-SiAlON: Eu) in cooperation with a dynamic heat dissipation design of a device. Stable light output is achieved under the 50W laser power, the luminous flux reaches 684lm and 4770lm respectively, and the color gamut covers 125% Rec.709 after the blue laser is coupled with blue laser. Meanwhile, the device is suitable for various commercial fluorescent powder and supports the design of a patterned fluorescent rotating wheel. The application bottleneck of traditional fluorescent powder is broken through, and the fluorescent powder is particularly suitable for high-end display scenes such as IMAX cinema, AR / VR immersive display and high-brightness engineering projection.