Abstract: A display panel and a thin film transistor (TFT) array substrate are disclosed. A peripheral electrode, a first bar-shaped electrode array, a second bar-shaped electrode array, a third bar-shaped electrode array, and a fourth bar-shaped electrode array are included in a pixel electrode in the display panel. The first bar-shaped electrode array, the second bar-shaped electrode array, the third bar-shaped electrode array, and the fourth bar-shaped electrode array respectively are disposed on a first area, a second area, a third area, and a fourth area which are surrounded by the peripheral electrode. The peripheral electrode connects with the first bar-shaped electrode array, the second bar-shaped electrode array, the third bar-shaped electrode array, and the fourth bar-shaped electrode array. The penetration rate of a pixel unit can be improved by the present invention.

Abstract: The invention provide a manufacturing method for producing conductive adhesive with spherical graphene, and the steps comprise as following: step 1: preparing monomer, initiator, a dispersing agent and solvent to manufacture a monomer compound, and use the monomer compound to produce polymer micro ball; step 2: heating pre-treatment or plasma etching pre-treatment to the said polymer micro ball; step3: by chemical vapor deposition, the polymer micro ball after pre-treatment from step 2 to grow graphene outside surfaces or inside polymer micro ball, and then obtain the spherical graphene; step 4: producing epoxy gel system made by epoxy, hardener and accelerant with a certain ratio mixing homogeneously; step 5: dispersing the spherical graphene from step 3 into the epoxy gel system to produce pre-material of conductive adhesive of spherical graphene; Step 6: deforming the pre-material of conductive adhesive of spherical graphene, and then obtain conductive adhesive of spherical graphene.

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).

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).

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.

Abstract: The present invention provides a method of manufacturing conductive film and the conductive film itself.

Abstract: The present invention provides a method of defining poly-silicon growth direction, comprising: providing a glass substrate (1); forming a buffer layer (3) on the glass substrate (1); forming a metal film layer (5) on the buffer layer (3); implementing etching to the metal film layer (5) to form a metal film array (51); covering the buffer layer (3) with a high-purity quartz mask (7); forming a graphene layer (9) on the high-purity quartz mask (7) and the metal film array (51); implementing etching to the graphene layer (9) to form a graphene layer array (91); forming an amorphous silicon thin film (2) on the buffer layer (3); implementing high temperature dehydrogenation to the amorphous silicon thin film (2); implementing an Excimer laser anneal process to the amorphous silicon thin film (2); melted amorphous silicon is re-crystallized.

Abstract: The present invention provides a manufacture method of a quantum-dot color filter, comprising: step 1, employing Bewendi method to compose quantum-dots (100) having a core shell structure, and obtaining quantum-dots having various grain sizes, comprising red quantum-dots (200) and green quantum-dots (300) by changing composition condition in the manufacture process; step 2, respectively processing surfaces of the red quantum-dots and the green quantum-dots with function of dispersant for stable dispersion to obtain stabilized red quantum-dots (200) and green quantum-dots (300); step 3, respectively dispersing and dissolving the stabilized red quantum-dots and green quantum-dots with resin, monomer, photoinitiator and additive agent in a solvent to form photosensitive dispersion containing red and green quantum-dots; step 4, employing the photosensitive dispersion containing red and green quantum-dots to form a pixel pattern.

Abstract: The present invention provides a vertical alignment liquid crystal display and a manufacture method thereof.

Abstract: The present invention provides a photoresist composition and a method of preparing the same. The photoresist composition includes a color polymer that is obtained by dye molecules grafted to a polymer molecule through chemical bonds. The photoresist composition utilizes the color polymer to replace conventional pigments to preclude conventional problems of difficult to disperse pigments in the photoresist composition, poor contrast and brightness. Since the color polymer has brilliant color, high penetration, good thermal and light stabilities, so that the photoresist composition of the present invention has better color developing effect, preferred thermal and light stabilities. The present invention provides a method of preparing a photoresist composition which reduces components in the photoresist composition and simplifies preparation process of the photoresist composition, the photoresist composition obtained thereby has better color developing effect, also has preferred thermal and light stabilities.

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.