Abstract: A display device including a substrate, a plurality of gate bus lines and a plurality of data bus lines intersecting the plurality of gate bus lines on the substrate, a plurality of pixel regions arranged between the plurality of data bus lines and the plurality of gate bus lines on the substrate, a plurality of pixel electrodes on the substrate at each of the plurality of pixel regions; and a plurality of microlenses over the substrate, wherein at least three microlenses among the plurality of microlenses correspond to each of the pixel electrodes in a width direction of the each of the pixel electrodes, wherein at least three microlenses correspond to edge portions of each of the pixel electrodes, and wherein at least one microlens among the plurality of microlenses that is overlapped with one data bus line does not overlap with the other data bus lines.

Abstract: A display device including a substrate, a plurality of gate bus lines and a plurality of data bus lines intersecting the plurality of gate bus lines on the substrate, a plurality of pixel regions arranged between the plurality of data bus lines and the plurality of gate bus lines on the substrate, a plurality of pixel electrodes on the substrate at each of the plurality of pixel regions; and a plurality of microlenses over the substrate, wherein at least three microlenses among the plurality of microlenses correspond to each of the pixel electrodes in a width direction of the each of the pixel electrodes, wherein at least three microlenses correspond to edge portions of each of the pixel electrodes, and wherein at least one microlens among the plurality of microlenses that is overlapped with one data bus line does not overlap with the other data bus lines.

Abstract: A display device includes first and second transparent substrates; a plurality of gate bus lines and data bus lines on the first transparent substrate to define a plurality of pixels; a plurality of color filter layers under the second transparent substrates; and a plurality of microlenses under one of the first and second transparent substrates at positions corresponding to the gate and data bus lines, wherein at least two microlenses among the plurality of microlenses are corresponded to each of the gate or data bus lines in a width direction of each of the gate or data bus lines, and wherein a border between the at least two microlenses is substantially aligned with a center of a corresponding one of the gate and data bus lines, and wherein at least one microlens overlapped with one data bus line does not overlap with the other data bus lines.

Abstract: A display device includes first and second transparent substrates; a plurality of gate bus lines and data bus lines on the first transparent substrate to define a plurality of pixels; a plurality of color filter layers under the second transparent substrates; and a plurality of microlenses under one of the first and second transparent substrates at positions corresponding to the gate and data bus lines, wherein at least two microlenses among the plurality of microlenses are corresponded to each of the gate or data bus lines in a width direction of each of the gate or data bus lines, and wherein a border between the at least two microlenses is substantially aligned with a center of a corresponding one of the gate and data bus lines, and wherein at least one microlens overlapped with one data bus line does not overlap with the other data bus lines.

Abstract: A liquid crystal display with a high transmittance and a low power consumption rate, includes first and second transmittable substrates, a plurality of gate and data bus lines formed on the first substrate, a plurality of color filters formed on the second substrate, and a plurality of microlenses formed on the first or second substrate corresponding to the gate and data bus lines. The microlenses are formed at positions corresponding to the gate and data bus lines which block incident lights, so that most incident lights can be transmitted. Further, the transmittance can be greatly improved by forming the microlenses at the positions corresponding to storage capacitor lines as well as the gate and data bus lines.

Abstract: A method for fabricating a color filter array substrate includes forming a black matrix on a substrate, depositing a color resist on the substrate and the black matrix, and patterning the color resist to form a color filter layer. The color resist has a boiling point in a range of about 70 to 80 degrees Celsius and has a viscosity in a range of about 3 to 5 centipoise and has a solid particle content below or equal to about 20 percent.

Abstract: A method of fabricating a color filter substrate of an LCD is disclosed. By forming the color filter layer from a hydrophobic material, a fluid black matrix material deposited on the surface of the substrate including the color filter layer flows from the surface of the color filter layer and accumulates between sub-color filters of the color filter layer. The black matrix material is then hardened, permitting the black matrix to be formed between the sub-color filters but not on the color filter layer. Accordingly, the number of mask processes for forming a black matrix is reduced. Further, since the black matrix is only disposed between the sub-color filters, an overcoat layer to eliminate the step difference due to the color filters need not be formed.

Abstract: A method of fabricating a color filter substrate of an LCD is disclosed. By forming the color filter layer from a hydrophobic material, a fluid black matrix material deposited on the surface of the substrate including the color filter layer flows from the surface of the color filter layer and accumulates between sub-color filters of the color filter layer. The black matrix material is then hardened, permitting the black matrix to be formed between the sub-color filters but not on the color filter layer. Accordingly, the number of mask processes for forming a black matrix is reduced. Further, since the black matrix is only disposed between the sub-color filters, an overcoat layer to eliminate the step difference due to the color filters need not be formed.

Abstract: A liquid crystal display device includes a first substrate including a plurality of data bus lines, a plurality of gate bus lines, and a plurality of thin film transistors at cross points of the plurality gate bus lines and the plurality of gate bus lines; a second substrate including a color filter layer; at least one shielding layer for shielding an outer induced electric field; and a liquid crystal layer sandwiched between the first substrate and the second substrate.

Abstract: An IPS-LCD panel includes first and second substrates, and a liquid crystal interposed therebetween. An electro-conductive polarizer is formed on the second substrate of the IPS-LCD panel, and a ground electrode surrounds the electro-conductive polarizer. The electro-conductive polarizer and ground electrode prevent exterior static electricity from affecting the liquid crystal layer.

Abstract: An IPS-LCD panel includes first and second substrates, and a liquid crystal interposed therebetween. An electro-conductive polarizer is formed on the second substrate of the IPS-LCD panel, and a ground electrode surrounds the electro-conductive polarizer. The electro-conductive polarizer and ground electrode prevent exterior static electricity from affecting the liquid crystal layer.

Abstract: A liquid crystal display with a high transmittance and a low power consumption rate, includes first and second transmittable substrates, a plurality of gate and data bus lines formed on the first substrate, a plurality of color filters formed on the second substrate, and a plurality of microlenses formed on the first or second substrate corresponding to the gate and data bus lines. The microlenses are formed at positions corresponding to the gate and data bus lines which block incident lights, so that most incident lights can be transmitted. Further, the transmittance can be greatly improved by forming the microlenses at the positions corresponding to storage capacitor lines as well as the gate and data bus lines.

Abstract: A liquid crystal display device includes a first substrate including a plurality of data bus lines, a plurality of gate bus lines, and a plurality of thin film transistors at cross points of the plurality gate bus lines and the plurality of gate bus lines; a second substrate including a color filter layer; at least one shielding layer for shielding an outer induced electric field; and a liquid crystal layer sandwiched between the first substrate and the second substrate.

Abstract: A method for manufacturing a display, which includes first and second substrates, each having an inner light shielding region and an edge light shielding region, includes the steps of defining the edge light shielding region into a first portion and a second portion, and defining an area of the first substrate. The area includes the first portion of the edge light shielding region. The area including the first portion of the edge light shielding region is removed and leaves the second portion of the edge light shielding region. The first and second substrates are combined at the second portion of the edge light shielding region.

Abstract: A liquid crystal display with in-plane switching mode for improving its light transmittance, includes a first substrate that forms light transmissive portions and light untransmissive portions, a second substrate, and liquid crystal injected between the first and second substrates. The second substrate includes a black matrix, a color filter layer, an overcoat layer and an alignment film. The overcoat layer is patterned to form micro-lenses for refracting the incident light to pass through the light transmissive portions without being blocked by the light untransmissive portions. Various patterning methods can be selected to form the micro-lenses.