Abstract: A cutting device, having a full-cutting assembly, a half-cutting assembly, and a cam, is provided. The full-cutting assembly includes a first cutting blade and a facing part to cut a tape fully through in a direction of thickness of the tape by rotating a first arm about a first shaft. The half-cutting assembly includes a second cutting blade and a supporting base to cut the tape partly in the direction of thickness by rotating a second arm about a second shaft. The cam is rotatable bidirectionally about a third shaft and has a cam face, on which a first pressing part to press the first arm and a second pressing part to press the second arm are arranged. A distance between the cam face and the second arm is smaller than or equal to a distance between the cam face and the first arm.

Abstract: A block copolymer composition containing at least one type of block copolymer component obtained by using a vinyl aromatic hydrocarbon and a conjugated diene, wherein the block copolymer composition satisfies the conditions (1) to (3) indicated below. (1) The weight-average molecular weight is at least 100000 and at most 300000, and the conjugated diene content is at least 18 mass % and at most 35 mass %. (2) The vinyl aromatic hydrocarbon block percentage is at least 80% and at most 100% relative to the total amount of the vinyl aromatic hydrocarbon. (3) At least 30 mass % and at most 60 mass % of block copolymer components having a conjugated diene content of at least 30 mass % are included.

Abstract: A cutting device, having a supporting base, a cutter section, a protrusive part, is provided. The supporting base has a first area, in which a tape is placeable, and a second area on a surface thereof The surface is formed of a resin coating layer in the first area alone between the first area and the second area. The cutter section has a blade and is movable to approach and separate from the surface. The protrusive part protrudes from the cutter section in a direction, toward which an edge of the blade points. When the cutter section approaches the surface of the supporting base, with the protrusive part contacting the surface of the supporting base in the second area, the blade cuts the tape located between the surface of the supporting base in the first area and the blade partly in a direction of thickness of the tape.

Abstract: A cutting device, having a full-cutting assembly, a half-cutting assembly, and a cam, is provided. The full-cutting assembly includes a first cutting blade and a facing part to cut a tape fully through in a direction of thickness of the tape by rotating a first arm about a first shaft. The half-cutting assembly includes a second cutting blade and a supporting base to cut the tape partly in the direction of thickness by rotating a second arm about a second shaft. The cam is rotatable bidirectionally about a third shaft and has a cam face, on which a first pressing part to press the first arm and a second pressing part to press the second arm are arranged. A distance between the cam face and the second arm is smaller than or equal to a distance between the cam face and the first arm.

Abstract: A printing apparatus, having a casing, a printer, and a battery cover, is provided. The casing includes a battery compartment, to which a battery is attachable, and a terminal arranged inside the battery compartment. The printer is powered by the battery to print an image on a printable tape. The battery cover is attachable to the casing and, when at an attached position, covers at least a part of the battery compartment. The casing includes a guide arranged outside the battery compartment to guide the battery cover toward the attached position in the casing. The battery cover includes a first wall portion, which contacts the guide at an outer face thereof and slides along the guide as the battery cover moves toward the attached position, and a pressing portion to press the battery in the battery compartment against the terminal as the first wall portion slides along the guide.

Abstract: A 12th solar cell includes a light receiving surface and a back surface that face in opposite directions. A first adhesion layer adhesively attaches a wire to the light receiving surface, and a second adhesion layer that adhesively attaches a wire to the back surface. A first encapsulant encapsulates the 12th solar cell from a side of the light receiving surface, and a second encapsulant encapsulates the 12th solar cell from a side of the back surface. An amount of antioxidant contained in the first adhesion layer and the second adhesion layer is equal to or larger than an amount of antioxidant contained in the first encapsulant.

Abstract: The resin composition includes a block copolymer including a vinyl aromatic hydrocarbon-derived structural unit and a conjugated diene-derived structural unit, the resin composition satisfying the following (1) to (3): (1) an area ratio of components having a molecular weight in terms of polystyrene of equal to or more than 400,000 with respect to all components is equal to or more than 8% and equal to or less than 50%; (2) at least one main peak of a loss tangent value (tan ?) measured under a condition of a frequency of 1 Hz at a temperature rising rate of 4° C./min in accordance with ISO 6721-1 is present in a range of equal to or more than 70° C. and equal to or less than 100° C.; and (3) a strain hardening degree (? max) of a compression-molded specimen prepared in accordance with ISO 293 is equal to or more than 2.0.

Abstract: A solar cell module according to an example of an embodiment of this disclosure includes a plurality of solar cells and a wiring member configured to connect, among the plurality of solar cells, a first solar cell and a second solar cell which are adjacent to each other. The solar cell module further includes a first protective base, a second protective base, a first encapsulant disposed between the first protective base and the plurality of solar cells, and a second encapsulant disposed between the second protective base and the plurality of solar cells. The first protective base is a translucent glass base. The first encapsulant has a rate of stress relaxation in a range of 0.18˜0.52 at a temperature of 90° C.

Abstract: A solar cell module includes a plurality of solar cells arranged to be aligned along a first direction, a plurality of wiring materials configured to connect the plurality of solar cells, a plurality of first transparent members disposed individually on respective light receiving surface sides of the plurality of solar cells and bonded to the plurality of wiring materials, and a plurality of second transparent members disposed individually on respective rear surface sides of the plurality of solar cells, the rear surface sides being opposite to the light receiving surface sides, and bonded to the plurality of wiring materials.

Abstract: A solar cell module includes: a plurality of solar cells; and a plurality of first-type wiring members electrically connecting adjacent solar cells. The solar cell includes: a photoelectric conversion layer; and a plurality of first-type and second-type finger electrodes. The plurality of first-type and second-type finger electrodes are arranged on a surface of the photoelectric conversion layer in a direction in which the plurality of first-type wiring members extend. A height of the plurality of first-type and second-type finger electrodes from the photoelectric conversion layer in a portion in which the plurality of first-type wiring members are provided is lower at an end of the photoelectric conversion layer than toward a center thereof.

Abstract: A plurality of inter-cell wiring members electrically connect adjacent solar cells. The solar cell includes a photoelectric conversion layer and a finger electrode. The finger electrode is disposed on a surface of the photoelectric conversion layer and extends in a first direction. A plurality of inter-cell wiring members extend in a second direction intersecting the first direction and are arranged in the first direction, overlapping the finger electrode. The finger electrode may be formed to have a larger thickness at the end in the first direction than at the center in the first direction.

Abstract: An image display device includes a microcomputer and LUTs which are tables of correction data used to correct color balance of images. The microcomputer sets LUT extensions and calculates the LUTs based on: (1) the normalized values GainLn of the L conforming adjustment values GainL and the normalized values GainHn of the H conforming adjustment values GainH; (2) the normalized values Lin of the input values Liref of the image data of the L adjustment image and the normalized values Hin of the input values Hiref of the image data of the H adjustment image; (3) the correction data of the LUTs; and (4) the correction data of the LUT extension units.

Abstract: In a video display apparatus A, a controller 9, while displaying video processed by a video processor 4 on a video display 3, displays LUTs 45R, 45G, and 45B which are tables of correction data for correcting luminance levels of red, green, and blue respectively. The controller 9 re-calculates and rewrites the correction data based on one adjustment point or two or more adjustment points P1 and P2 adjusted by the user.

Abstract: A display device includes a display screen that displays an image; and a controller that: obtains a first cumulative value of a blue light output amount from the display screen during a first time period during which the display screen continuously displays the image; and decreases a blue light output from the display screen based on the first cumulative value.

Abstract: In a video display apparatus A, a controller 9, while displaying video processed by a video processor 4 on a video display 3, displays LUTs 45R, 45G, and 45B which are tables of correction data for correcting luminance levels of red, green, and blue respectively. The controller 9 re-calculates and rewrites the correction data based on one adjustment point or two or more adjustment points P1 and P2 adjusted by the user.

Abstract: In a video display apparatus A, a controller 9, while displaying video processed by a video processor 4 on a video display 3, displays LUTs 45R, 45G, and 45B which are tables of correction data for correcting luminance levels of red, green, and blue respectively. The controller 9 re-calculates and rewrites the correction data based on one adjustment point or two or more adjustment points P1 and P2 adjusted by the user.

Abstract: In a video display apparatus A, a controller 9, while displaying video processed by a video processor 4 on a video display 3, displays LUTs 45R, 45G, and 45B which are tables of correction data for correcting luminance levels of red, green, and blue respectively. The controller 9 re-calculates and rewrites the correction data based on one adjustment point or two or more adjustment points P1 and P2 adjusted by the user.

Abstract: In a video display apparatus A, a controller 9, while displaying video processed by a video processor 4 on a video display 3, displays LUTs 45R, 45G, and 45B which are tables of correction data for correcting luminance levels of red, green, and blue respectively. The controller 9 re-calculates and rewrites the correction data based on one adjustment point or two or more adjustment points P1 and P2 adjusted by the user.

Abstract: A photoelectric converter is provided with a photoelectric conversion unit, a light-receiving-surface electrode provided on the light-receiving surface of the photoelectric conversion unit, and a rear-surface electrode provided on the rear surface of the photoelectric conversion unit. The rear-surface electrode includes a transparent conductive film layered on the rear surface of the photoelectric conversion unit, and a metallic film layered on substantially the entire surface of the transparent conductive film with the exception of an end edge region.

Abstract: The solar cell (1) of the present invention is provided with: a photoelectric conversion unit (10); a transparent conductive layer (15) provided on the surface of the photoelectric conversion unit (10); a metal layer (17) provided on the transparent conductive layer (15); and an intermediate layer (20) which has a smaller extinction coefficient than that of the metal layer (17) and which is provided between the transparent conductive layer (15) and the metal layer (17). Evanescent light generated at the interface between the photoelectric conversion unit (10) and the transparent conductive layer (15) is less readily absorbed by the intermediate layer (20), and the proportion of the metal layer (17) which readily absorbs evanescent light can be reduced in the area in which evanescent light is standing. As a result, it is possible to suppress a decrease in optical reflectance by the metal layer (17), and to increase the utilization efficiency of light.