Abstract: A scanning exposure device includes a stage that supports a substrate, wherein a space is provided between a stage surface and the substrate; a light source unit that radiates light to a light irradiation area that extends in one direction above the substrate; and a scanning device that moves one or both of the stage and the light source unit relatively in a scanning direction that intersects the one direction. The scanning device is provided with an acceleration zone from a position in which the stage and the light source unit are at a standstill to a position in which the substrate supported by the stage enters the light irradiation area. The stage comprises a light shielding member that covers the space between the stage surface and the substrate at an end part of the stage.

Abstract: An array board includes a glass substrate including a display area and a non-display area, an organic insulation film disposed over a range of the display area and the non-display area, an array board side alignment film disposed on the organic insulation film, a film forming area restricting portion disposed in the non-display area and recessed in a part of the surface of the organic insulation film, and an alignment film material storing portion disposed closer to the display area than the film forming area restricting portion in the non-display area and recessed in a part of the organic insulation film. An angle formed by at least a part of a surface of the alignment film material storing portion and a normal line of the glass substrate is greater than an angle formed by a side surface of the film forming area restricting portion and the normal line.

Abstract: A scanning exposure device includes a stage that supports a substrate, wherein a space is provided between a stage surface and the substrate; a light source unit that radiates light to a light irradiation area that extends in one direction above the substrate; and a scanning device that moves one or both of the stage and the light source unit relatively in a scanning direction that intersects the one direction. The scanning device is provided with an acceleration zone from a position in which the stage and the light source unit are at a standstill to a position in which the substrate supported by the stage enters the light irradiation area. The stage comprises a light shielding member that covers the space between the stage surface and the substrate at an end part of the stage.

Abstract: An array board includes a glass substrate including a display area and a non-display area, an organic insulation film disposed over a range of the display area and the non-display area, an array board side alignment film disposed on the organic insulation film, a film forming area restricting portion disposed in the non-display area and recessed in a part of the surface of the organic insulation film, and an alignment film material storing portion disposed closer to the display area than the film forming area restricting portion in the non-display area and recessed in a part of the organic insulation film. An angle formed by at least a part of a surface of the alignment film material storing portion and a normal line of the glass substrate is greater than an angle formed by a side surface of the film forming area restricting portion and the normal line.

Abstract: An array board 1311b includes a first conductive film, a second conductive film, an insulator, an alignment film 1311e, and at least two inclined portions 48, 49. The second conductive film is disposed above the first conductive film and at least a portion of the second conductive film overlap the first conductive film in a plan view. The insulator is disposed between the first conductive film and the second conductive film. The insulator includes a contact hole formed at a position overlapping the first conductive film and the second conductive film in a plan view and connects the second conductive film to the first conductive film. The alignment film 1311e is disposed above the second conductive film. The alignment film 1311e includes a portion that overlaps the contact hole in a plan view and a portion that does not overlap the contact hole in a plan view. The inclined portions 48, 49 are formed at an edge of the contact hole in the insulator.

Abstract: A liquid crystal panel includes a first board, a second board, a sealing member, a first inner limiting portion, and a first outer limiting portion. The second board is disposed opposite the first board with internal space therebetween. The sealing member is disposed between the first and the second boards so as to surround and seal the internal space. The inner limiting portion is included in at least one of the first and the second boards and located closer to the internal space than the sealing member for limiting a forming area of the sealing member from an internal space side. The outer limiting portion is included in at least one of the first and the second boards and located on an outer side farther from the internal space than the sealing member for limiting the forming area of the sealing member from the outer side.

Abstract: An array board 11b includes a first conductive film, a second conductive film, an insulator, and an alignment film. The second conductive film is disposed above the first conductive film and includes at least a portion that overlaps the first conductive film in a plan view. The insulator is held between the first and the second conductive films. The insulator includes a contact hole at a position overlapping the first and the second conductive films in a plan view for connecting the second conductive film to the first conductive film. The alignment film 11e is disposed above the second conductive film and includes a portion overlapping the contact hole and a portion not overlapping the contact hole in a plan view. The bending portion 43 is defined by at least a portion of an edge of the contact hole in the insulator. The bending portion bends toward an inner side of the contact hole such that an outer angle of the bending portion in a plan view is a reflex angle.

Abstract: An industrial X-ray tube formed by accommodating a cathode and anode in a container having an evacuated interior, in which electrons emitted from the cathode are caused to strike the anode and X-rays are emitted from the anode. The cathode is formed from graphite. The graphite is a layered crystal obtained by layering a plurality of carbon hexagonal planes. The graphite is cut based on crystal axes of the carbon hexagonal planes. The resulting cut surface is caused to function as an electron-emitting surface. For example, directions of an a- and b-crystal axis may be set so as to be arbitrary between each of the layers of the carbon hexagonal planes, the graphite may be cut along a surface parallel to the c-axis, and the resulting cut surface may be caused to function as an electron-emitting surface. The graphite may also be cut along a surface orthogonal to the c-axis.

Abstract: An X-ray generator includes a booster circuit formed by sequentially connecting a plurality of boosting steps extending from a low-voltage terminal to a high-voltage terminal of its own. The booster circuit is arranged in a lateral region of the X-ray tube so as to make the low-voltage terminal of its own correspond to the anode of the X-ray tube and the high-voltage terminal of its own correspond to the cathode of the X-ray tube. A lead wire extending from the cathode to the outside of the X-ray tube is connected to the high-voltage terminal of the booster circuit. A molded member containing insulating resin is formed to shield at least a cathode side end part of the X-ray tube, the lead wire outwardly extending from the cathode side end part and a high-voltage terminal side end part of the booster circuit.

Abstract: A method of manufacturing a liquid crystal panel in which the bright point defect is effectively corrected is provided. The method of manufacturing a liquid crystal panel 11 including a pair of substrates 40 and 30, and a liquid crystal layer 50 provided between the pair of the substrates 40 and 30 includes detecting a bright point defect in the liquid crystal panel 11; forming a first light blocking portion BL1 in one of the substrates 40 and 30 and in a part of an area that surrounds the bright point defect with a plan view; forming a recess in a portion of one of the substrates 40, 30 that overlaps the bright point defect and on a surface of the one of the substrates 40 and 30 that is opposite from a surface facing the liquid crystal layer; and forming a second light blocking portion BL2 in the recess.

Abstract: A droplet applying device (2) includes: application heads (2d) configured to eject an application liquid as multiple droplets toward to-be-coated subjects (K1, K2); a moving mechanism (2c) configured to move each of the to-be-coated subjects (K1, K2) and the application heads (2d) relative to each other; and a rotating mechanism (2b) configured to rotate the to-be-coated subjects (K1, K2) in a plane intersecting with an ejecting direction in which the multiple droplets are ejected.

Abstract: A liquid crystal display device (50a) includes: an active matrix substrate (20a) having a plurality of gate lines (1a) extending in parallel with each other; a counter substrate (30a) provided so as to face the active matrix substrate (20a); a liquid crystal layer (25) provided between the active matrix substrate (20a) and the counter substrate (30a); and spherical spacers (21) provided between the active matrix substrate (20a) and the counter substrate (30a) so as to overlap each gate line (1a), for defining a thickness of the liquid crystal layer (25). A first protruding wall (9a) for surrounding the spacers (21) is provided over each gate layer (1a) of the active matrix substrate (20a), and a second protruding wall (19b) for surrounding the spacers (21) is provided on the counter substrate (30a).

Abstract: A liquid crystal display device (50a) includes: an active matrix substrate (20a) having a plurality of gate lines (1a) extending in parallel with each other; a counter substrate (30a) arranged so as to face the active matrix substrate (20a); a liquid crystal layer (25) interposed between the active matrix substrate (20a) and the counter substrate (30a); and spherical spacers (21) disposed between the active matrix substrate (20a) and the counter substrate (30a) so as to overlap each gate line (1a), for defining a thickness of the liquid crystal layer (25). A protruding wall (9a) is provided over each gate line (1a) of the active matrix substrate (20a) so as to surround the spacers (21).

Abstract: An industrial X-ray tube formed by accommodating a cathode and anode in a container having an evacuated interior, in which electrons emitted from the cathode are caused to strike the anode and X-rays are emitted from the anode. The cathode is formed from graphite. The graphite is a layered crystal obtained by layering a plurality of carbon hexagonal planes. The graphite is cut based on crystal axes of the carbon hexagonal planes. The resulting cut surface is caused to function as an electron-emitting surface. For example, directions of an a- and b-crystal axis may be set so as to be arbitrary between each of the layers of the carbon hexagonal planes, the graphite may be cut along a surface parallel to the c-axis, and the resulting cut surface may be caused to function as an electron-emitting surface. The graphite may also be cut along a surface orthogonal to the c-axis.

Abstract: An X-ray generator includes a booster circuit formed by sequentially connecting a plurality of boosting steps extending from a low-voltage terminal to a high-voltage terminal of its own. The booster circuit is arranged in a lateral region of the X-ray tube so as to make the low-voltage terminal of its own correspond to the anode of the X-ray tube and the high-voltage terminal of its own correspond to the cathode of the X-ray tube. A lead wire extending from the cathode to the outside of the X-ray tube is connected to the high-voltage terminal of the booster circuit. A molded member containing insulating resin is formed to shield at least a cathode side end part of the X-ray tube, the lead wire outwardly extending from the cathode side end part and a high-voltage terminal side end part of the booster circuit.

Abstract: A reflection-type display device includes an optical modulation layer 34, a pair of substrates 30 and 32 between which the optical modulation layer 34 is retained, an electrode structure 52, 44 for causing pixel-by-pixel changes in the optical characteristics of the optical modulation layer 34. One of the pair of substrates 32 has a corner cube array composed of a plurality of corner cubes 36. The corner cube array 36 has a plurality of projections 46 defining an interval between the pair of substrates 30 and 32, the plurality of projections 46 being disposed in peak portions.

Abstract: Droplet ejection method and device capable of preventing a line defect, which results from a defective nozzle that ejects an inappropriate amount of droplet and is included in nozzles of an ink-jet head, from developing to appear as a visible defect in image display of a liquid crystal display panel. When adjacent streams of droplets of alignment material that are formed by movements in a Y-direction of the ink-jet head join together to form an alignment film on a substrate, a shift amount in an X-direction of the ink-jet head is set such that the adjacent streams are formed by the different nozzles. Thus, the streams of the droplets ejected from the defective nozzle can be prevented from being formed adjacent to each other, and portions of the alignment film that have thicknesses smaller than the other portions, which result in line defects, do not gather together but are dispersed.

Abstract: A liquid crystal display device includes: pixel electrodes arranged in columns and rows, each including a reflective electrode region; scanning lines; and signal lines. The device sequentially supplies a scanning signal voltage to one of the scanning lines after another to select one group of pixel electrodes, connected to the same one of the scanning lines, after another, and then supplies display signal voltages to the selected group of pixel electrodes by way of the signal lines, thereby displaying an image thereon. The pixel electrodes are arranged such that the polarity of a voltage to be applied to a liquid crystal layer is inverted for every predetermined number of pixel electrodes in each of the rows and in each of the columns. The display signal voltage to be supplied to each pixel electrode is updated at a frequency of 45 Hz or less.

Abstract: A liquid crystal display device includes: pixel electrodes arranged in columns and rows, each including a reflective electrode region; scanning lines; and signal lines. The device sequentially supplies a scanning signal voltage to one of the scanning lines after another to select one group of pixel electrodes, connected to the same one of the scanning lines, after another, and then supplies display signal voltages to the selected group of pixel electrodes by way of the signal lines, thereby displaying an image thereon. The pixel electrodes are arranged such that the polarity of a voltage to be applied to a liquid crystal layer is inverted for every predetermined number of pixel electrodes in each of the rows and in each of the columns. The display signal voltage to be supplied to each pixel electrode is updated at a frequency of 45 Hz or less.

Abstract: A droplet applying device (2) includes: application heads (2d) configured to eject an application liquid as multiple droplets toward to-be-coated subjects (K1, K2); a moving mechanism (2c) configured to move each of the to-be-coated subjects (K1, K2) and the application heads (2d) relative to each other; and a rotating mechanism (2b) configured to rotate the to-be-coated subjects (K1, K2) in a plane intersecting with an ejecting direction in which the multiple droplets are ejected.