Abstract:
The present invention provides a graphene polymer conductive film and a method of manufacturing the graphene polymer conductive film. The method uses a graphene conductive polymer as conductive filler such that the drawbacks of the conventional conductive film such as exceeded filler content, expensive, complex manufacturing process and high environment pollution. The manufacture of graphene uses the method of in situ polymerization such that the conductive polymer and the graphene are distributed more uniformly, the produced graphene conductive polymer is with good stability, and the conductivity is proved. The present invention further realizes size control of the graphene conductive polymer in the process of manufacturing the graphene conductive polymer through adjusting the ratio of raw materials of the graphene and the conductive monomers. The graphene polymer conductive film produced by the present invention has advantages of high conductivity, environment friendly, etc., and could be applied in a thin film transistor liquid crystal display for substituting conductive golden film or conductive silver film, or applied in connecting superfine circuitry.
Abstract:
The present invention provides a method for manufacturing a curved liquid crystal panel, which includes Step 1: pre-setting radii of curvature of a CF substrate and an array substrate of a curved liquid crystal panel; Step 2: preparing the CF substrate (1) and the array substrate (2), the CF substrate (1) and the array substrate (2) being both in the form of a flat panel, where in step (2), a spacing distance L2 between two adjacent data lines (21) and a spacing distance L1 of black matrixes (11) in a direction in which the data lines (21) is lined up are set to be different; Step 3: individually curving the CF substrate (1) and the array substrate (2) to reach the pre-set radii of curvature of Step 1; and Step 4: subjecting the curved CF substrate (1) and array substrate (2) to vacuum lamination through curved surface lamination to be laminated together to form a curved liquid crystal panel. This method eliminates the displaying defects caused by the conventional way of manufacturing a curved liquid crystal panel and effectively enhances the product yield rate.
Abstract:
A vertical alignment liquid crystal display includes a first substrate, a second substrate, a liquid crystal layer located between the first substrate and the second substrate, a first and a second passivation layers respectively located at inner sides of the first and the second substrates, a common electrode layer and a pixel electrode layer respectively located on the first and the second passivation layers. The liquid crystal layer includes liquid crystal molecules, auxiliary alignment agent and a polymer network penetrating the entire liquid crystal layer. The auxiliary alignment agent makes the liquid crystal molecules in the liquid crystal layer vertically aligned on the surfaces of the first and the second substrates. The polymer network stabilizes alignment of the liquid crystal molecules and enhances vertical alignment effect of the auxiliary alignment agent to the liquid crystal molecules.
Abstract:
The present invention provides a flexible liquid crystal panel and a manufacture method thereof. The flexible liquid crystal panel comprises a first, a second flexible substrates (1, 3) oppositely located, a first, a second flat layers (11, 31) respectively located at an inner sides of the first, the second flexible substrates (1, 3), a color filter layer (33) located between the second flexible substrate (3) and the second flat layer (31), a spacing retaining wall (5) located on the second flat layer (31), seal glue (7) coated on a side of the spacing retaining wall (5) close to the first flexible substrate (1) and a liquid crystal layer (9); the spacing retaining wall (5) comprises a plurality of transverse parts (51) parallel with one another extending transversely and a plurality of longitudinal parts (53) parallel with one another extending longitudinally, and the transverse parts (51) and the longitudinal parts (53) interlace with one another to separate a plurality of sub pixels, and the liquid crystal layer (9) is filled in closed districts formed by the transverse parts (51) and the longitudinal parts (53) interlacing with one another.
Abstract:
A liquid crystal display device includes a liquid crystal panel and a back light module located under the liquid crystal panel. The liquid crystal panel includes a first substrate and a second substrate arranged opposite to each other; a liquid crystal layer arranged between the first substrate and the second substrate; an upper polarizer arranged at one side of the first substrate that is distant from the liquid crystal layer; a lower polarizer arranged at one side of the second substrate that is distant from the liquid crystal layer; and a quantum-dot color filter arranged between the back light module and the lower polarizer. The back light module emit blue light, which excites red and green quantum dots contained in the quantum-dot color filter to emit red light and green light, respectively.
Abstract:
A conductive adhesive includes spherical graphene and an epoxy gel system that includes epoxy, a hardener, and an accelerant. A mass ratio of the epoxy gel system to the spherical graphene is 100:2-30. The epoxy of the epoxy gel system is one of one of bisphenol A epoxy resins E44, bisphenol A epoxy resins E51, bisphenol A epoxy resins E54, bisphenol A epoxy resins EPON826, and bisphenol A epoxy resins EPON828, and an amount of the epoxy to the epoxy gel system is 80 wt % to 95 wt %. The hardener is one of hexahydrophthalic anhydride, tetrahydrophthalic anhydride, succinic dihydrazide, adipic acid dihydrazide, dicyandiamide, and phenylenediamine, and an amount of the hardener to the epoxy gel system is 1 wt % to 12 wt %. The accelerant is one of 2-ethyl-4-methylimidazole, imidazole, 2-methylimidazole, and triethylamine, and an amount of the accelerant to the epoxy system is 0.3 wt % to 5 wt %.
Abstract:
The present invention provides a manufacture method of a flexible liquid crystal panel and a flexible liquid crystal panel. The manufacture method of the flexible liquid crystal panel first manufactures comb pixel electrodes (11), gate lines, data lines, TFTs and a color filter layer on a first flexible substrate (1); continuously coats a mixture of sealant (51′) and liquid crystal micro capsules (53) on a flexible carrier (30) in roll-to-roll, and meanwhile implements UV irradiation to the sealant (51′) for occurring polyreaction and solidification to become a polymeric layer (51), and the liquid crystal micro capsules (53) are distributed in the polymeric layer (51) to acquire a polymer/liquid crystal mixture layer (5); cuts a composite layer of the flexible carrier (30) and the polymer/liquid crystal mixture layer (5) to obtain a second flexible substrate (3); then, laminates the first flexible substrate (1) and the second flexible substrate (3); finally, laminates an upper polarizer (9) and a lower polarizer (7).
Abstract:
The present invention provides a liquid crystal display panel structure and a manufacture method thereof. The liquid crystal display panel structure comprises a CF substrate (1), a TFT substrate (3), a liquid crystal layer filled between the CF substrate (1) and the TFT substrate (3), sealant (7) coated between the CF substrate (1) and the TFT substrate (3) and a black matrix (5) arranged between the CF substrate (1) and the TFT substrate (3); the black matrix (5) is positioned at periphery of an active area (AA) on the CF substrate (1), and a height thereof is smaller than a distance between the CF substrate (1) and the TFT substrate (3), and the black matrix (5) comprises a plurality of trenches (51), and each of the trenches (51) penetrates the black matrix (5) to form a hollow construction, and the sealant (7) is positioned on the black matrix (5) and fills in the trenches (51). Such structure is capable of promoting the adhesive force between the CF substrate and the TFT substrate and preventing separation of the CF substrate and the TFT substrate without any additional cost.
Abstract:
The present invention provides a reflective flexible liquid crystal display, which includes: an upper flexible substrate (1), a lower flexible substrate (3) arranged opposite to the upper flexible substrate (1), a layer of liquid crystal (5) filled between the upper flexible substrate (1) and the lower flexible substrate (3), a circular polarization sheet (7) arranged on an upper surface of the upper flexible substrate (1), and a flexible light guide plate (9) arranged on an upper surface of the circular polarization sheet (7). The upper flexible substrate (1) and the flexible light guide plate (9) are both transparent and the lower flexible substrate (3) includes a reflector layer (37) formed thereon. The reflective flexible liquid crystal display has a simple structure, allowing the liquid crystal display to be applied to flexible displaying.
Abstract:
The present invention provides a liquid crystal panel and a manufacturing method thereof. The liquid crystal panel is used for a field sequence color display mode and includes a first substrate (1), a second substrate (2), a liquid crystal layer (3), an upper polarizer (11) arranged on a surface of the first substrate (1) distant from the liquid crystal layer (3), a lower polarizer (21) arranged on a surface of the second substrate (2) distant from the liquid crystal layer (3), and a comb electrode (22) arranged on a surface of the second substrate (2) adjacent to the liquid crystal layer (3). The liquid crystal layer (3) is of a polymer-dispersed liquid crystal structure and includes a polymer layer (32) and liquid crystal drops (31) dispersed in the polymer layer (32). The upper polarizer (11) and the lower polarizer (21) have axes that are perpendicular to each other and are each slanted with respect to the comb electrode (22). The comb electrode (22) generates a horizontal electric field to drive liquid crystal molecules contained in the liquid crystal drops (31). The liquid crystal panel has a fast response speed and high contrast.