Abstract: A liquid discharge method for a liquid discharge apparatus having a plurality of print modes includes determining and changing. The determining determines the print modes by a determiner. The changing changes, based on the print mode determined by the determiner, a use nozzle width and a discharge amount of a spot color head in a line feed direction such that a print mode having a low print speed has a narrower nozzle width and a larger discharge amount than a print mode having a high print speed by a controller.

Abstract: An electromagnetic wave transmissive cover is configured to be employed in a vehicle to which a sensor device including an electromagnetic wave transmissive portion is attached. The electromagnetic wave transmissive cover includes a cover body that covers the sensor device from the front in the emission direction of electromagnetic waves, and a seal member that is attached to the cover body. The seal member is configured to be disposed between the sensor device and the cover body. The seal member includes a foam seal portion that is formed by foaming an elastic material. The foam seal portion is configured to be in contact with the sensor device in a state of surrounding the electromagnetic wave transmissive portion.

Abstract: An electromagnetic wave transmissive cover is configured to be employed in a vehicle to which a sensor device is attached. The electromagnetic wave transmissive cover includes a cover body that is attached to the vehicle and covers the sensor device from a front side in an emission direction of the electromagnetic waves, and a seal member that provides a seal between the sensor device and the cover body. The seal member includes an attachment base portion that is attached to the cover body while surrounding the electromagnetic wave transmissive portion, and an annular hollow seal portion that is coupled to the attachment base portion and is in contact with the sensor device while surrounding the electromagnetic wave transmissive portion.

Abstract: A driving device for driving an in-vehicle lighting device in which a plurality of light sources are arranged in one direction, comprising a detection unit configured to detect an environment of a vehicle, and a driving unit configured to drive the plurality of light sources in sequence in the one direction, wherein the driving unit drives the plurality of light sources so that driving timings of the plurality of light sources will change in accordance with a detection value obtained by the detection unit.

Abstract: A driving device for driving an in-vehicle lighting device in which a plurality of light sources are arranged in one direction, comprising a detection unit configured to detect an environment of a vehicle, and a driving unit configured to drive the plurality of light sources in sequence in the one direction, wherein the driving unit drives the plurality of light sources so that driving timings of the plurality of light sources will change in accordance with a detection value obtained by the detection unit.

Abstract: A vehicular lamp device includes a horizontal rectangular lamp body and reflects irradiation light of light sources with a reflector unit for outward irradiation via an outer lens. Four reflector portions of the reflector unit have long side reflectors and short side reflectors. The long side reflectors are contiguously arranged in the long side direction at the positions toward the long sides of the lamp device. The short side reflectors are contiguously arranged in the short side direction at the positions toward the short sides of the lamp device. Light sources are each positioned toward the center of each reflector portion in front view of the lamp device. Border lines between the long side reflectors and short side reflectors are formed along inclined lines inclined to extend from near the light sources relative to the long side direction.

Abstract: A lighting system capable of reducing a number of components and cost is provided. A back substrate, a lamp body including front support columns that guide and position the back substrate when the back substrate is attached, and a front substrate that is disposed in the lamp body to be stacked on the back substrate and is fixed to tip end portions of the front support columns are included. The front support columns perform guide and positioning of the back substrate, and fixing of the front substrate, and thereby the number of components and cost of the lamp body are reduced, as compared with a case where the guide portions, positioning portions and fixing portions of the back substrate and the front substrate are individually provided respectively.

Abstract: To provide a light device that can suppress the heat influence. In a tail light having LED chips, an electronic component that turns on the LED chips, and a first substrate, and a second substrate, and a third substrate on which the LED chips and the electronic component are disposed, a plurality of the first substrate, the second substrate, and the third substrate are independently provided, and are spaced from one another.

Abstract: A side view type surface mounted light-emitting device includes a submount substrate that includes a mounting surface on one side surface and end through-holes formed at both edges of the mounting surface, a light-emitting element mounted on the submount substrate, first and second flat terminals formed on the mounting surface, and first and second through-hole terminals respectively formed on inner surfaces of the end through-holes at both edges of the mounting surface. At least one of the first flat terminal and the first through-hole terminal is electrically connected to one of n-side and p-side electrodes of the light-emitting element, and at least one of the second flat terminal and the second through-hole terminal is electrically connected to the other of the n-side and p-side electrodes of the light-emitting element.

Abstract: A manufacturing method of a side view type light emitting device including a package body made of a synthetic resin material, the manufacturing method includes: providing an injection molding mold, for injection-molding the package body, including: a first mold provided with a first convex part for forming an upper surface side flat part on an upper surface of the package body; and a second mold provided with a first concave part for forming the upper surface side flat part; and fitting the first concave part around the first convex part so as to enter a liquid tight state with no space, injecting the synthetic resin material into each of the first and second molds so as to be filled therein, and hardening the synthetic resin material to form the package body in a state in which the first mold and the second mold are aligned with each other.

Abstract: A vehicular lamp device includes a horizontal rectangular lamp body and reflects irradiation light of light sources with a reflector unit for outward irradiation via an outer lens. Four reflector portions of the reflector unit have long side reflectors and short side reflectors. The long side reflectors are contiguously arranged in the long side direction at the positions toward the long sides of the lamp device. The short side reflectors are contiguously arranged in the short side direction at the positions toward the short sides of the lamp device. Light sources are each positioned toward the center of each reflector portion in front view of the lamp device. Border lines between the long side reflectors and short side reflectors are formed along inclined lines inclined to extend from near the light sources relative to the long side direction.

Abstract: To provide a light device that can suppress the heat influence. In a tail light having LED chips, an electronic component that turns on the LED chips, and a first substrate, and a second substrate, and a third substrate on which the LED chips and the electronic component are disposed, a plurality of the first substrate, the second substrate, and the third substrate are independently provided, and are spaced from one another.

Abstract: A lighting system capable of reducing a number of components and cost is provided. A back substrate, a lamp body including front support columns that guide and position the back substrate when the back substrate is attached, and a front substrate that is disposed in the lamp body to be stacked on the back substrate and is fixed to tip end portions of the front support columns are included. The front support columns perform guide and positioning of the back substrate, and fixing of the front substrate, and thereby the number of components and cost of the lamp body are reduced, as compared with a case where the guide portions, positioning portions and fixing portions of the back substrate and the front substrate are individually provided respectively.

Abstract: A method of manufacturing a light emitting element includes forming a resin film including a phosphor containing layer on a transparent board side surface of a wafer including a transparent board and a plurality of light emitting parts formed on the transparent board, forming a scribing line along a scheduled separation surface in a surface of the transparent board by scribing before or after forming the resin film, cutting the resin film along the scheduled separation surface before or after forming the scribing line, and separating the transparent board along the scheduled separation surface by breaking after forming the scribing line and cutting the resin film.

Abstract: Fresnel lenses are arranged between a board and an outer lens in such a manner as to face at least one of LED chips. The Fresnel lenses are arranged close to a center of the outer lens in front view. Convex and dome-shaped lenses are arranged between the board and the outer lens in such a manner as to face other light sources of the LED chips. The dome-shaped lenses are arranged more radially outward than the Fresnel lenses in front view. Rear surface 89a of the dome-shaped lenses are arranged to be offset toward the LED chips relative to rear surfaces of the Fresnel lenses.

Abstract: A method of manufacturing a light emitting device, includes: temporarily connecting light emitting elements to a wiring layer through connection members, the wiring layer being formed on a mounting board provided with reflectors; contacting a pressing surface of a press-bonding jig with upper surfaces of the light emitting elements and pressing the light emitting elements toward the mounting board while being heated at the same time to deform the connection members and to contact the pressing surface with tops of the reflectors; and connecting the light emitting elements to the wiring layer in a flip chip manner, wherein when the light emitting elements are temporarily connected to the wiring layer, a sum of height of a light emitting element of the light emitting elements and a connection member of the connection members is set to be larger than a height of a reflector of the reflectors.

Abstract: A light source includes: a mounting substrate; and a side-view type light-emitting device including: a substrate; through holes; a front electrode; a rear electrode; side electrodes; and a light-emitting element, wherein: land patterns are formed on a front surface of the mounting substrate, in positions corresponding to the through holes, each land pattern having an inverted “T” shape composed of a narrow region and a wide region; the light-emitting device is arranged such that the cross sectional shape of the through hole in the long side direction of the substrate is aligned with the shape of the narrow region of the land pattern, in a plan view; and solder members are formed in a wall shape on the mounting substrate, are formed in the through holes on the mounting substrate, and connects the rear electrode and the side electrode to the wide region and the narrow region, respectively.

Abstract: A method of manufacturing a light emitting device, includes: mounting an LED chip on a substrate; forming a translucent sealing layer for sealing the LED chip; forming a protective layer on the sealing layer; forming a groove, which penetrates the substrate and the sealing layer, using a blade from a side opposite to the side of the substrate mounted with the LED chip, the groove being formed to extend to a lower surface or an inside of the protective layer; filling the groove with a reflector material; and removing and separating a portion of the protective layer in which at least the groove is formed, wherein the blade has a shape tapered toward an edge.

Abstract: A light source includes: a mounting substrate; and a side-view type light-emitting device including: a substrate; through holes; a front electrode; a rear electrode; side electrodes; and a light-emitting element, wherein: land patterns are formed on a front surface of the mounting substrate, in positions corresponding to the through holes, each land pattern having an inverted “T” shape composed of a narrow region and a wide region; the light-emitting device is arranged such that the cross sectional shape of the through hole in the long side direction of the substrate is aligned with the shape of the narrow region of the land pattern, in a plan view; and solder members are formed in a wall shape on the mounting substrate, are formed in the through holes on the mounting substrate, and connects the rear electrode and the side electrode to the wide region and the narrow region, respectively.

Abstract: An LED lighting device system for a vehicle prevents erroneous lighting of the LED lighting device due to leakage current at fee operation switch. An LED lighting device system for a vehicle is provided with an LED lighting device having an LED light source, an operation switch for lighting and extinguishing the LED light source, and a power source that is connected to the input side of the operation switch and feeds electrical current to the LED light source. The LED light device system for a vehicle has a switching element capable of blocking electrical current flowing to the LED light source and a detection unit that detects voltage on the output side of the operation switch and causes the switching element to block the electrical current.