32results about How to "Does not affect luminosity" patented technology

The invention discloses a colour photoluminescence glass and its production method, which comprises 85-92% of glass material and 8-15% of compound luminescent material, and the composition of compound luminescent material includes: (1). one or several kinds of SiO2, Al2O3, B2O3; (2) one or several kinds of Na2O, LiO, K2O and SrCO; (3). one or two kinds of P2O5 and NH2; (4) one or several kinds of Tb2O3, Eu2O3, Y2O3, Er2O3 and Ce2O3; and (5) one or several kinds of TiCl, Nd2O3, Dy2O3 and La2O3. According to the luminescent colour the said materials can have different combinations and mixing ratio, and its luminescent colour can have various colours of red, orange, yellow, blue and purple, etc. After the natural light can be absorbed by said glass for 10-15 min., it can emit colour light for 6-8 hr.

The invention discloses a method for manufacturing an AlGaInP-LED (Light Emitting Diode) integrated micro display component with a single-side electrode structure, wherein the steps comprises: etching multiple first grooves which are mutually intersected on a device body; growing a lower electrode metal layer on the bottom part of each groove to form the lower electrode metal layer; growing an insulating medium layer above a lower electrode; corroding an area of the lower electrode metal layer outside a lower electrode diagram downward till reaching a certain depth in an N-shaped substrate layer in order to form multiple second grooves; filling opaque diaphragms into the second grooves and the upper part of a protection medium of the lower electrode; manufacturing an upper electrode above a light emitting unit; and electroforming upper and lower electrode leads. With the adoption of the method for manufacturing the LED array micro display device with the planar electrode structure disclosed by the invention, the process difficulty resulting from the manufacturing of the electrodes on the front face and the back face respectively can be prevented; since the manufactured micro display device is provided with the double bar type upper and lower electrodes of which the different faces are perpendicular to each other, the more even current distribution can be obtained; and therefore, the micro display device available for even luminance is obtained.

The invention relates to a firefighting guide illumination line comprising a continuously luminous strong electroluminescence line (1), a PVC transparent plastic layer (2), an electroluminescence line(3) and a flexible wire cable (4) parallel to the electroluminescence line (3), wherein the PVC transparent plastic layer (2) is arranged outside the strong electroluminescence line (1); the electroluminescence line (3) and the flexible wire cable (4) are arranged in the strong electroluminescence line (1) which is wound on a rotatable wire coil wheel (6) with a stand (5); the center of the wirecoil wheel (6) is provided with charging batteries (7) and a driving controller (8) and is connected in series with one end of the strong electroluminescence line (1); the power-on strong electroluminescence line (1) can continuously illuminate when being electrified, and the wire coil wheel (6) is used to randomly withdraw and release the strong electroluminescence line (1). The firefighting guide illumination line is mainly applied to underground places, such as markets, subways, coal mine, and the like for rescue and guides refugees to evacuate towards a destination direction.

The invention discloses a preparation method of low-melting-point fluorescent glass and belongs to the field of preparation of glass materials. The preparation method is characterized in that the (NaPO3)6-NaF-CaO-B2O3-Sb2O3-Li2O-ZnO low-melting-point fluorescent glass is provided through the optimized design of the glass components, and the specific preparation steps are provided as follows: (1) firstly preparing the low-melting-point bare glass; (2) then mixing a commercial yttrium aluminium garnet structure yellow fluorescent powder and the low-melting-point glass powder in an alumina crucible, and firing and forming. The cost of the provided components for preparing the fluorescent glass is low, the operation process is simple and effective, the heat resisting property and the machiningproperty are excellent, the energy consumption in the production is low, the chemical stability is excellent, a solution is provided for solving the problems of a high-power LED device like light attenuation and color temperature drifting, and the limitations of the traditional fluorescent powder are expected to be broken.

The invention discloses a full-depth flexible luminous pavement which comprises the following components in percentage by weight: 88.0-96.0% of white stone material, 1.0-2.5% of white stone powder, 1.5-4.5% of a transparent binding material and 1.5-5.0% of luminous powder. The invention further provides a preparation method of the full-depth flexible luminous pavement. The pavement comfort can begreatly improved, and the pavement has the obvious advantages in aspects such as water permeability, skid resistance, afterglow time and the like. Meanwhile, even if the pavement surface is polluted,due to a special pavement structure, luminous property of the afterglow time can be still kept below the pavement surface.

The invention discloses a two-dimensional gallium nitride film confinement template preparation method, and relates to the technical field of semiconductor material preparation. The method comprises the following steps of transferring liquid metal gallium to the surface of a substrate to form a metal gallium film; performing film oxidation on metal gallium to obtain a gallium oxide film on the surface of the substrate; preparing a two-dimensional boron nitride film by adopting a chemical vapor deposition method; transferring the two-dimensional boron nitride film to the top surface of the gallium oxide film, so that the gallium oxide film is coated by the two-dimensional boron nitride film to obtain a silicon wafer-gallium oxide film-two-dimensional boron nitride film compound; and putting the silicon wafer-gallium oxide film-two-dimensional boron nitride film compound into an environment containing a nitrogen source for nitriding treatment, and cooling to obtain the gallium nitride film. The method has the beneficial effects that based on the stability, the insulativity and the promotion effect on the exciton luminescence performance of boron nitride, the two-dimensional boron nitride and the substrate are taken as templates, gallium nitride is grown between the two-dimensional boron nitride and the substrate in a confinement manner, the high-energy surface of gallium nitride is passivated, and a stable two-dimensional gallium nitride structure is formed.

The invention discloses an AlGaInP-LED (Light Emitting Diode) integrated micro-display device with a single-face electrode structure, comprising an N-type substrate layer and multiple light emitting units, wherein the N-type substrate layer is used for supporting the micro-display device; the multiple light emitting units are arranged above the N-type substrate layer and are separated by multiple mutually-intersected channels; opaque diaphragms are filled in the channels; and a lower electrode is arranged on the lower stage top of each light emitting unit, and an upper electrode is arranged on top of each light emitting unit. According to the AlGaInP-LED integrated micro-display device with the single-face electrode structure, the difficulty in the process of manufacturing electrodes on the front side and the back side is avoided, the double strip-shaped upper electrode and lower electrode perpendicular in a non-coplanar manner are adopted, and more uniform current distribution can be obtained.

The invention belongs to the technical field of up-conversion luminescent materials, and specifically relates to a rare earth doped up-conversion luminescent material with an excellent damp-proof property and a preparation method thereof. The chemical formula of the up-conversion luminescent material is Sc<2-2x>Ln<2x>M<3>O<12>, Ln represents one or more of Er, Ho, Tm, Yb, Gd, and Dy, M representsMo or W, and 0<x<=0.40. The prepared up-conversion luminescent material has a negative thermal expansion performance and has different properties compared with a conventional material; as the temperature rises, the emitted light is enhanced; and a possible material and research idea are provided for modulating the light emitting strength at will through temperature adjustment.

The invention provides a graphene photoluminescent substrate having a sandwich structure. The core layer of the sandwich structure is a photoluminescent material layer, and the surface layer of the sandwich structure is a graphene layer. At the same time, the invention provides a preparation method and application of the graphene photoluminescent substrate. Graphene is adopted as a protective layer of a photoluminescent substrate, so that a photoluminescent material sensitive to heat is effectively prevented from being affected by high temperature generated when an LED chip works, and erosion of the photoluminescent material by micromolecules such as oxygen and water can also be avoided, thereby maintaining relatively high luminescent performance; and graphene itself has a low absorptivity of light, and does not have obvious influence on luminescent performance of a solid luminescent device. Thus, by adoption of the graphene photoluminescent substrate provided by the invention, the application range of the photoluminescent material sensitive to heat can be greatly expanded without substantially transforming an existing solid luminescent device manufacturing technology on the basis of an LED chip.

The present invention discloses an alkaline earth aluminate long-afterglow phosphor powder with SiO2 glass coating layer and its preparation method. This invented preparation method includes the following steps: hydrolyzing silicate in an aqueous solution containing cosolvent and catalyst to obtain an uniform transparent solution, mixing the above-mentioned alkaline earth aluminate long-afterglow phosphor powder and the above-mentioned obtained solutino according to a certain proportion, filtering, drying and heating so as to obtain the invented alkaline earth aluminate long-afterglow phosphor powder with SiO2 glass coating layer. It not only can raise water-proofing and heat-resisting properties, but also does not affect its luminous performance, and its preparation process is simple and easy to implement industrial production.

The invention belongs to the technical field of nano materials, and particularly relates to a rare earth fluoride hybrid nanoflower and a preparation method thereof. According to the method, protein is used as a mineralization template, and rare earth fluoride is used as an inorganic component. Compared with the prior art, synthesis of the protein-rare earth fluoride hybrid nanoflower can be achieved under the low-temperature condition, and the method is mild in reaction condition, environmentally friendly and low in energy consumption; the prepared hybrid nanoflower has a high specific surface area, and on the basis that the stability and activity of protein are guaranteed to the maximum extent, the unique luminescence characteristic of lanthanide series metal is added; the method has a good protein immobilization effect, and the luminescence property of the original lanthanide series metal is not influenced; and the prepared nanoflower is doped with different types of lanthanide ions, and has a huge application potential in the aspects of biosensing, biocatalysis and medical diagnosis and treatment.

The invention relates to an organic electroluminescence panel and a manufacturing method thereof. The organic electroluminescence panel comprises a base plate, a bottom electrode, an organic layer, a top electrode and a sealing layer, wherein the bottom electrode, the organic layer, the top electrode and the sealing layer are formed on the base plate from bottom to top; the distance between the edges of the bottom electrode, the organic layer and the top electrode in at least one direction and the edge of the base plate is increased progressively, and the distance between the edges of the bottom electrode, the organic layer and the top electrode in at least the other direction and the edge of the base plate is decreased progressively; the part of the top electrode overlapped above the bottom electrode is formed in the range of the organic layer; the sealing layer is covered on the bottom electrode, the organic layer and the top electrode, and at least part of the bottom electrode is exposed out in the distance-increased direction; and at least part of the top electrode is exposed out in the distance-decreased direction. The invention adopts a technical means that each layer structure on the organic electroluminescence panel relatively offsets for a certain distance, and can reduce the requirement of alignment accuracy. Accordingly, the invention can simplify equipment and process, can reduce cost, and can increase manufacturing speed and yield.