Abstract: This display device includes a display panel including a rear side holding member made of resin, holding a display cell from the rear side and a substrate mounting member made of sheet metal, mounted with a circuit substrate, while the substrate mounting member made of sheet metal includes a drawn portion formed by a first protruding portion, and the rear side holding member made of resin includes a second protruding portion corresponding to the first protruding portion on a portion corresponding to the drawn portion of the substrate mounting member made of sheet metal.

Abstract: A display device includes a display component, a light source, a light guide plate, a spacer member, and a biasing member. The display component displays images. The light source emits light. The light guide plate guides the light emitted from the light source to the display component. The light guide plate has a light incident face on which the light emitted from the light source is directly incident. The spacer member is disposed in a region other than where the light guide plate and the light source are opposite each other such that the spacer member maintains a specific spacing between the light source and the light incident face of the light guide plate. The biasing member is arranged to bias one of the light source and the light guide plate towards the other of the light source and the light guide plate.

Abstract: A liquid ejecting apparatus includes a main body in which an opening portion exposing at least a portion of a carriage moving area, a cover section displaceable with the main body, an ink tank that is located outside the main body, an ink supply tube for supplying ink from the ink tank to a head, and a spacer that forms a gap between the main body and the cover. An accommodation section is configured by a casing portion formed to protrude in a discharge direction of paper. An operation panel section is configured by a casing portion exhibiting an inclined surface. The spacer forms a gap having a size that does not shut off at least an ink flow path of the ink supply tube and passes the ink supply tube through the formed gap.

Abstract: A liquid ejection apparatus includes a cover unit that is movable relative to a housing, an ink tank provided outside the housing in a state containing ink, a ink supplying tube in which ink can flow so that ink is supplied from the ink tank to the liquid ejection head, and an insertion hole that allows the ink supplying tube to be inserted into the housing, wherein the housing is formed by a housing portion in which a container that houses a stacker is formed to protrude, and a housing portion which has an operation panel having an inclined surface which protrudes at a position above the container, and the insertion hole is provided on at least one of the housing and the cover unit.

Abstract: A liquid ejecting apparatus includes a housing and a movement region of a carriage including a liquid ejecting head, an ink tank positioned at the outer side of the movement region of the carriage, an ink supply tubes connecting the ink tank and an adapter on the carriage, and a fixing portion fixing a portion of the ink supply tubes. In the housing, a containing unit of a sheet feeding cassette is formed to project to a discharge direction of a sheet and an operation panel unit is configured to have a housing portion having an inclined surface whose lower side further projects to the discharge direction than the upper side. The ink supply tubes have a deformable moving unit performing a movement of the carriage on a portion of a liquid ejecting head side rather than a fixing portion using a fixing tool.

Abstract: A planar light-emitting device includes a light source element and a light guide plate. The light source element is configured to emit light. The light guide plate has a housing hole, a light-emitting face and a light reflecting face. The housing hole houses the light source element. The light reflecting face is formed along a side end portion of the light guide plate. The light reflecting face has an inclined portion that is located next to the housing hole in a first direction of the light guide plate and a flat portion that is located next to the inclined portion in a second direction that is perpendicular to the first direction. The inclined portion has an inclination angle with respect to the flat portion such that the light reflected on the inclined portion is prevented from returning the housing hole.

Abstract: A light source unit includes an LED mount bar and a set of LEDs. The LED mount bar has an inside channel that is located at a center portion of the LED mount bar, and outside channels that are located at outside portions of the LED mount bar, respectively. The set of LEDs is disposed in the inside channel and the outside channels. The set of LEDs is ranked into a plurality of chromaticity regions within a predetermined chromaticity range in a chromaticity coordinate system and ranked into a plurality of luminous flux ranges according to a luminous flux value of the LEDs, respectively. The inside channel including a plurality of first LEDs from a subset of the set of LEDs. The subset of LEDs is ranked in a predetermined chromaticity region of the chromaticity regions and ranked in a predetermined luminous flux range of the luminous flux ranges.

Abstract: A light source structure includes a light-emitting diode, an optical component, a frame and a mounting substrate. The light-emitting diode emits light. The frame has an inside face defining an inside area and outside face with an attachment opening extending between the inside and outside faces. The light-emitting diode is disposed in the attachment opening to emit the light toward the inside area of the frame. The frame houses the optical component in the inside area of the frame. The mounting substrate has a base member, a copper layer that is laminated on the base member, and a resist film that is laminated on the copper layer. The resist film has a first aperture with the light-emitting diode extending through the first aperture such that the light-emitting diode is electrically coupled to and mounted on the copper layer. The mounting substrate is disposed on the outside face of the frame.

Abstract: This display includes a light source portion, a first heat radiation member for radiating heat generated by the light source portion, a rear housing covering the first heat radiation member in a state in contact with the first heat radiation member, and a cover member covering a rear surface of the rear housing so that the rear surface of the rear housing is partially exposed outward. The first heat radiation member is arranged on a region corresponding to a region of the rear housing exposed outward from the cover member as viewed from the side of the rear surface.

Abstract: This display includes a light source, a display module including a display cell and a light guide guiding light to the display cell, and a housing, storing the light source and the display module, integrally provided with a positioning portion directly positioning at least either the display cell or the light guide.

Abstract: A printing device includes: a moveable guided portion; and a guide rail that guides the guided portion between a lower position at a lower side in a vertical direction, and a retained region being at an upper side from the lower position and in which the guided portion is retained; the retained region being provided with a receiving portion that receives a lower end of the guided portion, and a first guiding element that changes an attitude of the guided portion such that the lower end of the guided portion is conducted to an upper portion of the receiving portion accompanying an upward movement of the guided portion.

Abstract: A recording apparatus includes a case. In the case, a feeding unit configured to feed a recording medium in a feeding direction, a feeding path through which the recording medium is fed, a recording unit configured to record on the recording medium, and an ink tube connected to the recording unit and an ink cartridge for supplying ink to the recording unit are provided. A first opening is provided in a face of the case for allowing the recording medium disposed in the feeding path to be removable. A second opening is provided in the face where the first opening is provided for allowing the ink cartridge to be installed. An operating unit is provided above the first opening.

Abstract: A liquid crystal module is provided. A cell guide is attached to a rear frame and including at least a vertical plate portion and a convex portion provided on the vertical plate portion. A liquid crystal panel is mounted on the cell guide. A relay substrate is attached to the cell guide such that the relay substrate is provided along the vertical plate portion of the cell guide. A chip on film electrically connects the liquid crystal panel and the relay substrate. A lower end portion of the relay substrate is interposed between the vertical plate portion and the convex portion of the cell guide.

Abstract: A light source structure includes a light-emitting diode, an optical component, a frame and a mounting substrate. The light-emitting diode emits light. The frame has an inside face defining an inside area and outside face with an attachment opening extending between the inside and outside faces. The light-emitting diode is disposed in the attachment opening to emit the light toward the inside area of the frame. The frame houses the optical component in the inside area of the frame. The mounting substrate has a base member, a copper layer that is laminated on the base member, and a resist film that is laminated on the copper layer. The resist film has a first aperture with the light-emitting diode extending through the first aperture such that the light-emitting diode is electrically coupled to and mounted on the copper layer. The mounting substrate is disposed on the outside face of the frame.

Abstract: A light source unit includes an LED mount bar and a set of LEDs. The LED mount bar has an inside channel that is located at a center portion of the LED mount bar, and outside channels that are located at outside portions of the LED mount bar, respectively. The set of LEDs is disposed in the inside channel and the outside channels. The set of LEDs is ranked into a plurality of chromaticity regions within a predetermined chromaticity range in a chromaticity coordinate system and ranked into a plurality of luminous flux ranges according to a luminous flux value of the LEDs, respectively. The inside channel including a plurality of first LEDs from a subset of the set of LEDs. The subset of LEDs is ranked in a predetermined chromaticity region of the chromaticity regions and ranked in a predetermined luminous flux range of the luminous flux ranges.