44results about How to "Polarized" patented technology

The invention provides a polarizer, a substrate structure and a display panel. The polarizer comprises an adhesive film, a first protection film, a polarization film, a second protection film and a surface protection film. The adhesive film is a conductive adhesive film and used for conducting static generated by a corresponding substrate. The polarizer has a polarization function, and also has a conductive function due to the conductive adhesive film. When the polarizer is adhered to the substrate, the conductive adhesive film can be directly connected with a corresponding grounding piece, grounding can be achieved without extra conductive adhesive tape or conductive gaskets, static release protection of the substrate is achieved, static release protection achieving processes are simplified, the problem of unfirm fixing is avoided, and the light leakage problem caused by fixing conductive gaskets is avoided.

The invention discloses a single-mode single-polarization hollow negative curvature optical fiber. The invention discloses a hollow negative curvature optical fiber, which belongs to the technical field of hollow negative curvature optical fibers and comprises an outer cladding, four cladding tubes, a fiber core area, nesting tubes and a fiber core, wherein the four cladding tubes are uniformly arranged around the circle center of the outer cladding and cling to the inside of the outer cladding; the nesting tubes are respectively arranged in the cladding tubes and uniformly arranged around thecircle center of the outer cladding; the outer diameters of the four cladding tubes are equal, the wall thicknesses of the two cladding tubes in the Y direction are the same, the wall thicknesses ofthe two cladding tubes in the X direction are the same, the wall thickness of the cladding tubes in the Y direction is larger than that of the cladding tubes in the X direction, and the gaps between the adjacent cladding tubes in the circumferential direction are equal; the nesting tubes are tightly attached to the interiors of the cladding tubes and correspond to the position where the outer cladding is tightly attached to the cladding tubes; and the core area and other internal spaces are filled with air. At the working wavelength, the single-mode characteristic is good, the material is purequartz, the structure is simple, the effective mode field area is large, and the manufacturing efficiency is high.

The invention provides a light source, a projection display apparatus and a lamp. The light source comprises a first excitation source and a second excitation source, and also comprises a wavelength conversion wheel; the wavelength conversion wheel comprises a wavelength conversion layer and a first reflective type polarizing film which are arranged in a stacked manner; the wavelength conversion wheel also comprises a first driving apparatus used for driving the wavelength conversion layer and the first reflective type polarizing film to turn; first excitation light and second excitation light are incident to a first position and a second position of the wavelength conversion wheel respectively to excite the wavelength conversion layer so as to emit first light with a first polarizing direction and second light with a second polarizing direction from the first position and the second position respectively; and the first light and the second light form mixed light in a position of a polarizing light mixing apparatus. According to the light source, the projection display apparatus and the lamp disclosed by the invention, based on the polarization property of the first light and the second light, the first light and the second light are combined into one beam through the polarizing light mixing apparatus, so that the luminance is greatly improved.

The invention discloses a liquid crystal display screen, a composite substrate, and a manufacturing method. The composite substrate comprises a substrate, a carbon nano-tube layer, and an optical alignment base material. The carbon nano-tube layer is bonded on the surface of the substrate through the optical alignment base material. The carbon nano-tube layer comprises a plurality of carbon nano tubes extending along a same direction. Since the extension directions of the plurality of carbon nano tubes in the carbon nano-tube layer are the same, the carbon nano tubes arranged in parallel would form a plurality of grooves arranged in parallel. The grooves can be used for initial alignment for liquid crystal molecules, that is, the carbon nano-tube layer can be used as an alignment layer. The carbon nano-tubes have polarization effect, and have transmission effect on light whose polarization direction is vertical to the extension direction of the carbon nano tubes, and have absorption effect on light whose polarization direction is parallel to the extension direction of the carbon nano tubes, that is, the carbon nano-tube layer can be used as a polarization layer. Thus, the composite substrate can be used as an alignment layer, and also can be used as the polarization layer. Therefore, the composite substrate is used as a TFT array substrate, and is simple in structure and low in cost.

The invention discloses a preparation method of a foamed ceramic microsphere of a core-shell structure. The method comprises the steps of silica sol preparation, silica sol gelation, preparation of a silicic acid xerogel microsphere, washing-surface aging treatment, secondary washing and drying and high-temperature foaming. The foamed ceramic microsphere of the core-shell structure has the grain diameter of 0.3-5 mm and is of an inner-outer layered structure, a ceramic hermetic shell with the diameter of 45-55 micrometers is arranged on the outer layer of the microsphere, polygonal aggregates are composed of micron-grade particles on the surface of the ceramic hermetic shell, the interval of every two adjacent polygonal aggregates is 0.8-1.2 micrometers, holes with the diameter of 80-120 nm are distributed in the intervals, a plurality of capillary channels are distributed in the holes, the micron-grade particles are used as a base core, nano particles are deposited on the surfaces of the micron-grade particles, and the specific area of the microsphere of the particles with nano particles deposited is larger than that of a smooth microsphere with the same diameter by 3-4 orders of magnitude; the interior of the microsphere is of a three-dimensional cut-through net micropore structure, and hermetic balls with the diameter of 0.2-0.5 micrometers are distributed in the micropores.

The invention provides a preparation method of a silica-coated quantum rod, the preparation method comprises the following steps of: (1) dissolving a solution of CdSe / CdS quantum rod in a solvent containing an emulsifier, and stirring and mixing; (2) dropping ammonia water into the mixed solution obtained in the step (1) to form microemulsion; (3) adding TEOS to the microemulsion obtained in the step (2) for reaction, and adding methanol to demulsify after the reaction to obtain the silica-coated quantum rod; according to the preparation method provided by the invention, the quantum rod is synthesized first, then the surface of the quantum rod is coated with a silica shell layer, the nanocrystal with a more efficient and stable silica-coated quantum rod structure is prepared; and comparedwith the quantum rod which is not coated with silica, the fluorescence quantum yield is obviously increased and is more stable; and because the rod-shaped nanocrystal has polarization characteristics,and can be applied to display devices with polarization functions.

The invention discloses a back lighting device, which comprises a point light source, a rectangular light guide strip and a tabular light guide film. The light guide strip comprises a first light entering surface and a first light exiting surface, linearly polarized light enters from the first light entering surface, and linearly polarized parallel light exits through the first light exiting surface. The light guide film comprises a second light entering surface and a second light exiting surface, the linearly polarized parallel light enters from the second light entering surface and exits through the second light exiting surface. The invention further discloses a liquid crystal display device. The back lighting device is high in light energy utilization rate, light guide uniformity is improved, and the obtained liquid crystal display device is light and thin.

The invention discloses a lens, a light source module, a photoelectric module and a ceiling lamp and relates to the technical field of lighting. By means of the provided lens, installation space of the lens can be saved, and thus the situation that the lighting effect is influenced because light interference is generated is prevented from occurring. The lens comprises two lens units. Each lens unit comprises an installation surface and an irradiation-exiting surface which are oppositely arranged. The middle of each installation surface is sunken towards the direction of the irradiation-exitingsurface, and a cavity is formed. The wall surface of each cavity is the incident plane. The outline of projection, on the plane which the corresponding installation surface is located, of each incident plane comprises a first arc line and a second arc line which are connected into a closed loop structure and whose openings are opposite. The dimension, in the direction perpendicular to the centralsurface, of each second arc line is larger than that, in the direction perpendicular to the central surface by the first arc line. Each second arc line is arranged in a manner that the second arc line is close to the central plane of the lens body. Besides, the two lens units are integrally formed. The light source module, the photoelectric module and the ceiling lamp can be used for improving the property of the lens.

The invention discloses an infrared multi-wavelength absorber, which comprises a substrate I 1, a structural layer I 2, an adhesive layer I 3, a dielectric layer 4, an adhesive layer II 5 and a structural layer II 6 in sequence, wherein the structural layer II 6 consists of a double cross structure array; the double cross structures are formed by splicing two cross structures; the angles of arrays in both x and y directions are 90 degrees; and the cycles in both x and y directions are of wavelength scale. According to the infrared multi-wavelength absorber, multi-wavelength absorption of an infrared band is realized by using the structure arrays of a single size; the infrared multi-wavelength absorber has a simple structural form and small thickness and is easy in control of the absorption characteristic; and the infrared multi-wavelength absorber has polarization characteristic and has broad application prospect in the application aspect of biosensors. A large volume of experimental data proves that the infrared multi-wavelength absorber has superior performance.

The invention discloses a laser amplification method and a solid laser amplifier based on a disc crystal. Two amplification units share a disc crystal D, and seed light is amplified by the disc crystal D in one amplification unit, and thereafter the collimation and beam expanding of the amplified seed light is carried out, and then the seed light is transmitted to the other amplification unit, and is further amplified by the disc crystal D. The method and the device provided by the invention are advantageous in that the seed light of low energy level is amplified, and thereafter is further amplified after the collimation and beam expanding, and therefore on one hand, overhigh peak power caused by one-time direct amplification is prevented, and instruments and elements are prevented from being damaged, and on the other hand, output light beams tend to be flat, and shaping effect is achieved; light spots of different sizes in the two amplification units are transmitted to the same disc crystal D to acquire gain, and therefore the utilization rate of the gain area of the disc crystal D is greatly improved.

The invention discloses a preparation method of a polarizing film, a display substrate and a display device. An aluminum oxide nanotube layer of which the extending direction is parallel to a lining substrate is formed on the lining substrate; all aluminum oxide nanotubes in the aluminum oxide nanotube layer are filled with first metal, so that the aluminum oxide nanotube layer formed on the lining substrate has the polarized property. According to the preparation method of the polarizing film, the display substrate and the display device, the polarizing film is prepared on the lining substrate in situ, and a polaroid does not need to be attached to the lining substrate; in addition, a ripe electrochemical technology is adopted, and compared with an existing method for preparing the polarizing film through an NIL technique or an exposure technology, the preparation method has the advantages that no complex technology is needed, the cost is low, and the preparation method is suitable for large-size production.

The present application provides an OLED display panel, a manufacturing method, a driving method and a display device, so as to reduce the thickness of the OLED display panel and improve the brightness and flexibility of the OLED display panel. The OLED display panel includes: a light-emitting unit, and a quarter-wave plate and a wire grid polarizer sequentially arranged on the light-emitting unit, wherein the light-emitting unit includes a driving backplane, a light-emitting layer, and a cathode layer. The cathode layer includes a plurality of cathode sub-electrodes extending along the first direction and insulated from each other, the cathode sub-electrodes transmit cathode signals during the display phase of the display panel, and transmit touch driving signals during the touch phase of the display panel; the wire grid The polarizer includes a plurality of metal wires extending along the second direction, at least some of the metal wires form a plurality of touch sensing electrodes, and the touch sensing electrodes transmit touch control during the touch control phase of the display panel. A signal is sensed, the second direction intersects the first direction.

The invention discloses a quantum rod, a quantum rod film comprising the same and a display device. The quantum rod comprises a core, a shell layer and a rod-shaped protective layer. The core is composed of cadmium sulfide. And the shell layer is composed of zinc selenide and wraps the core. The rod-shaped protective layer is composed of zinc sulfide and wraps the shell layer.

The invention provides a light source and a projection display device and a lamp thereof. The light source comprises a first excitation source, a second excitation source and a wavelength conversion wheel, the wavelength conversion wheel comprises a wavelength conversion layer and a first reflective polarizing film which are arranged in laminated mode, and the wavelength conversion wheel further comprises a first driving device for driving the wavelength conversion layer and the first reflective polarizing film to rotate. The first excitation source and the second excitation source are respectively in incident at a first position and a second position of the wavelength conversion wheel to excite the wavelength conversion layer so as to enable a first light with a first polarization direction and a second light with a second polarization direction to be emitted out from the first position and the second position respectively, and the first light and the second light form combined light at the position of a polarization light combining device. According to the light source, the projection display device and the lamp, polarization characteristics of the first light and the second light are utilized, the first light and the second light are combined into one beam by using the polarization light combining device, and luminance is improved greatly.

The invention discloses a self-repairing composite material having polarization patterning capability and a preparation method thereof. The preparation method includes: dissolving a monomer in a solvent with uniform mixing and adding an initiator to perform the polymerization reaction without oxygen to obtain a copolymer; adding nano metal to the copolymer, and heating and uniformly mixing the components to obtain a nano-metal polymer; dissolving inorganic salt containing Fe<3+> in polybasic acid, regulating pH value, adding the solution to the nano-metal polymer, heating and uniformly mixingthe components to obtain the self-repairing composite material. The composite material has important application value and prospect in the fields such as patterning, pattern concealing, optical encryption anti-counterfeiting and 3D printing.

The present invention provided a method for stably and continuously manufacturing an optical compensating film which has a superior optical compensating function for an OCB type liquid crystal display device and also has small optical unevenness, and to provide the optical compensating film obtained by the method, a polarizer using the same, and a liquid crystal display device. Disclosed are the method for manufacturing the optical compensating film having a stage of forming a liquid crystal compound layer by coating a base with coating liquid containing a polymerizable liquid crystal compound, a stage of forming an optical anisotropic layer by aligning the liquid crystal compound after drying the liquid crystal compound layer and then fixing the alignment, and a stage of further heating the optical anisotropic layer at heating temperature of 40 to 150 DEG C for a heating time of 5 to 3,000 seconds after fixing the alignment of the liquid crystal compound, the optical compensating film obtained by the method, the polarizing plate using the same and the liquid crystal display device.