Abstract: The invention relates to a method for preparing an anti-counterfeiting modal fiber, including: mixing a pulp stock solution with a cellulose catalyst, alkalizing, aging, sulfonating, and then dissolving the pulp stock solution in an alkaline solution to obtain a treatment solution; mixing the treatment solution with multiple amino acid-metal chelates, filtering, defoaming and ripening to obtain a spinning stock solution; and mixing the spinning stock solution with a spinning bath additive, and wet spinning, followed by drafting, defoaming, desulfurizing, water washing, and other post-treatments, to obtain an anti-counterfeiting modal fiber, wherein the amino acid metal-chelates account for 0.5%-1.5% by weight of the spinning stock solution. Amino acid-metal chelates are used to anti-counterfeit and encrypt the modal fibers, and the anti-counterfeiting and encrypting is involved in the spinning stock solution of modal fibers.

Abstract: A film structure and a preparation method thereof are provided. The film structure is provided with pore structures; the pore structure includes a gas space and a first protective layer, the first protective layer covers the gas space, and the gas space is filled with a gas. The pore structures with the gas are provided in the film structure, a refractive index of the pore structures is close to a refractive index of air, and a refractive index of the entire film structure is reduced by the influence of the pore structures.

Abstract: A film structure and a preparation method thereof are provided. The film structure is provided with pore structures; the pore structure includes a gas space and a first protective layer, the first protective layer covers the gas space, and the gas space is filled with a gas. The pore structures with the gas are provided in the film structure, a refractive index of the pore structures is close to a refractive index of air, and a refractive index of the entire film structure is reduced by the influence of the pore structures.

Abstract: Disclosed is a liquid crystal display panel and a liquid crystal display device. The liquid crystal display panel comprises a first substrate and a second substrate which are disposed opposite to each other. The first substrate is provided, on a side thereof facing the second substrate, with a first polarizer film. The second substrate is provided thereon with a second polarizer film. A quantum-dot layer is provided between the first polarizer film and the first substrate, so that light can first pass through the quantum-dot layer and excite the quantum-dot layer, then enter the first polarizer film, and finally shine out through the second polarizer film. The liquid crystal display panel provided by the present disclosure will exhibit better display effect and have a higher transmissivity.

Abstract: The present disclosure provides a quantum dot display apparatus. By adding quantum dot display technology of the present disclosure can provide sophisticated quantum dot patterns in the color filter layer and have higher resolution, color saturation and color gamut of the display apparatus, the well structure and manufacture is simple. The disclosure also provides a manufacturing method of a quantum dot display apparatus, the methods includes exposure, coating, developing process of the existing color filter to contain the surface modified red and green quantum dot resin composition with more sophisticated patterns, and making high resolution, color saturation and color gamut quantum dot display apparatus, the material preparation and fabrication process of this manufacturing method is simple, less waste of materials, low production cost, suitable for mass production.

Abstract: The manufacturing method for QLED display of the present invention uses the white QD layer to replace the organic light-emitting layer of the WOLED structure in the WOLED process, and adds the UV photoinitiator to the white QD layer. The QDs between the sub-pixels are irreversibly quenched by UV irradiation with mask to form fine QD pattern so as to eliminate the mutual influence between adjacent sub-pixels and effectively reduce the distance between two sub-pixels, increase the aperture ratio, and improve the color gamut and contrast of the display to enhance the color expression capability of the display. The manufacturing method is simple, and saves cost and process. Compared with the conventional TFT-LCD display, the QLED display of the present invention is not required to fabricate a liquid crystal cell separately, thinner and lighter, and has a longer lifetime and higher luminous efficiency than a conventional WOLED display.

Abstract: A method for manufacturing quantum dots display panel comprises the following steps of: using an existing yellow light manufacturing process from color filter or combining with a dry etching manufacturing process to resin composition with surface-modified red quantum dots and surface-modified green quantum dots, then completing production of a quantum dots layer with a more refined graphical structure. Compared with other existing method for manufacturing quantum dots display panel, the present disclosure has the following advantages that simple preparation of raw materials and in making process, high-resolution graphics, large-scale volume production, and less processing time and cost are saved. The quantum dots are used into the structure of the color filter is to effectively improve color saturation and gamut of the display device, and to enhance color performance of display panel.

Abstract: The manufacturing method for QLED display of the present invention uses the white QD layer to replace the organic light-emitting layer of the WOLED structure in the WOLED process, and adds the UV photoinitiator to the white QD layer. The QDs between the sub-pixels are irreversibly quenched by UV irradiation with mask to form fine QD pattern so as to eliminate the mutual influence between adjacent sub-pixels and effectively reduce the distance between two sub-pixels, increase the aperture ratio, and improve the color gamut and contrast of the display to enhance the color expression capability of the display. The manufacturing method is simple, and saves cost and process. Compared with the conventional TFT-LCD display, the QLED display of the present invention is not required to fabricate a liquid crystal cell separately, thinner and lighter, and has a longer lifetime and higher luminous efficiency than a conventional WOLED display.

Abstract: Disclosed is a liquid crystal display panel and a liquid crystal display device. The liquid crystal display panel comprises a first substrate and a second substrate which are disposed opposite to each other. The first substrate is provided, on a side thereof facing the second substrate, with a first polarizer film. The second substrate is provided thereon with a second polarizer film. A quantum-dot layer is provided between the first polarizer film and the first substrate, so that light can first pass through the quantum-dot layer and excite the quantum-dot layer, then enter the first polarizer film, and finally shine out through the second polarizer film. The liquid crystal display panel provided by the present disclosure will exhibit better display effect and have a higher transmissivity.

Abstract: A method of forming a photoresist layer includes: forming alignment electrodes on a base; mixing color QRs and photoresist to form a mixed material; coating the mixed material on the base; applying the base coated with the mixed material with positive and negative voltages so that the long axes of the color QRs align horizontally under the effect of the horizontal electric fields generated by the alignment electrodes; vacuum-drying the base coated with the mixed material to enhance the viscosity of the photoresist; interrupting electricity at a designated point to form a photoresist layer, wherein the long axes of QRs remain aligned horizontally; the color film substrate includes color resist films; when a backlight source emits blue light to the color film substrate, a color filter is disposed on top of the red color film to filtrate the blue light.

Abstract: An LCD panel and a method for manufacturing are provided. The panel includes: a first substrate and a second substrate disposed opposite to the first substrate; a liquid crystal layer comprising a plurality of liquid crystal molecules and color quantum rods mixed in the liquid crystal molecules, wherein both the color quantum rods and the liquid crystal molecules have a major axis, and a major axis direction of the color quantum rods is identical to a major axis direction of the liquid crystal molecules.

Abstract: A method for manufacturing quantum dots display panel comprises the following steps of: using an existing yellow light manufacturing process from color filter or combining with a dry etching manufacturing process to resin composition with surface-modified red quantum dots and surface-modified green quantum dots, then completing production of a quantum dots layer with a more refined graphical structure. Compared with other existing method for manufacturing quantum dots display panel, the present disclosure has the following advantages that simple preparation of raw materials and in making process, high-resolution graphics, large-scale volume production, and less processing time and cost are saved. The quantum dots are used into the structure of the color filter is to effectively improve color saturation and gamut of the display device, and to enhance color performance of display panel.

Abstract: The disclosure provides a manufacture method of a quantum dot color film substrate, a high precision quantum dot pattern is formed utilizing a property of moisture varied layer of a photocatalyst achieving better moisture after being radiated by ultraviolet light, manufacture process of a quantum dot pattern is simplified as well as enhancing precision of quantum dot layer pattern, and consuming less quantum dot materials and costs, produced quantum dot color film substrate can improve color saturation and gamut of a display device efficiently, reinforcing color display ability of a display panel

Abstract: The present invention proposes an LCD panel and a method for forming the same. The LCD panel includes an isolator disposed between two adjacent liquid crystal units. Liquid crystal molecules of red liquid crystal units and green liquid crystal units are mixed with quantum rods (QRs) of corresponding colors. The red liquid crystal units correspond to a position of the red pixels, the green liquid crystal units correspond to a position of the green pixels. The QRs and liquid crystal molecules have long axes and directions of the long axes of QRs and liquid crystal molecules are the same.

Abstract: The present invention proposes an LCD panel and a method for forming the same. The LCD panel includes an isolator disposed between two adjacent liquid crystal units. Liquid crystal molecules of red liquid crystal units and green liquid crystal units are mixed with quantum rods (QRs) of corresponding colors. The red liquid crystal units correspond to a position of the red pixels, the green liquid crystal units correspond to a position of the green pixels. The QRs and liquid crystal molecules have long axes and directions of the long axes of QRs and liquid crystal molecules are the same.

Abstract: The present invention provides a method for patterning a quantum dot layer and a method for manufacturing a quantum dot color filter. The method for patterning a quantum dot layer according to the present invention uses a photoresist layer having a patterned structure as a shielding layer to subject a monocolor quantum dot layer to etching to form a patterned quantum dot layer. The method simplifies the constituent components for making a quantum dot paste that is used to form a quantum dot layer and simplifying a surface chemical environment of the quantum dots to thereby increasing light emission efficiency of the quantum dot. Further, the method may manufacture a fine quantum dot pattern, greatly improving the resolution of the patterned quantum dot layer.

Abstract: The present disclosure provides a quantum dot display apparatus. By adding quantum dot display technology of the present disclosure can provide sophisticated quantum dot patterns in the color filter layer and have higher resolution, color saturation and color gamut of the display apparatus, the well structure and manufacture is simple. The disclosure also provides a manufacturing method of a quantum dot display apparatus, the methods includes exposure, coating, developing process of the existing color filter to contain the surface modified red and green quantum dot resin composition with more sophisticated patterns, and making high resolution, color saturation and color gamut quantum dot display apparatus, the material preparation and fabrication process of this manufacturing method is simple, less waste of materials, low production cost, suitable for mass production.

Abstract: The present invention proposes a liquid crystal display (LCD) panel and a method ofr forming a polarizer. The LCD panel includes a first substrate, a second substrate, a liquid crystal layer placed between the first substrate and the second substrate, and a polarizer arranged on an outside area of the first substrate or an outside area of the second substrate. The polarizer includes a polarizing layer, a quantum rod mixed in raw materials for the polarizing layer for forming mixed materials where the quantum rod is used for increasing transmittance of the polarizer.

Abstract: An array substrate and a method of fabricating the same are disclosed. The method has the following steps of: fabricating a switch array layer on a substrate; forming a color resist layer having a red color filter, a green color filter and a blue color filter on the switch array layer, and a through hole in the color resist layer; forming a transparent conductive layer on the color resist layer; and forming a light shield layer on the transparent conductive layer.

Abstract: An LCD panel and a method for manufacturing are provided. The panel includes: a first substrate and a second substrate disposed opposite to the first substrate; a liquid crystal layer comprising a plurality of liquid crystal molecules and color quantum rods mixed in the liquid crystal molecules, wherein both the color quantum rods and the liquid crystal molecules have a major axis, and a major axis direction of the color quantum rods is identical to a major axis direction of the liquid crystal molecules.