Abstract: An LED lamp includes a lamp base; an LED light source module mounted on the lamp base; a transparent lampshade including two resisting sheets extending inwardly from an inner sidewall thereof, the two resisting sheets resisting the LED light source module to position the LED light source module; and two magnets mounted on opposite ends of a bottom surface of the lamp base, respectively; wherein each magnet includes a magnetic head and a connector, the connector includes a shaft and a flange extending outwardly from a periphery of an end of the shaft, the magnetic head has an annular shape and defines an engaging hole, the shaft of the connector extends through the lamp base and the engaging hole, and is connected to the magnetic head, the flange resists a top surface of the lamp base.

Abstract: An illumination device is provided that provides a uniform luminance of a light emitting surface and is less likely to cause a fringe pattern. The illumination device includes a mounting substrate on which multiple LEDs are mounted, a planar light guide plate that receives and guides at least a part of emission light emitted from the multiple LEDs, and multiple optical structures that are provided at intervals on one surface of the light guide plate and that change a traveling direction of light. The multiple optical structures include a first arrangement section that is provided on the LED side, a second arrangement section that is provided on a side away from the LEDs, and a third arrangement section that is provided between the first arrangement section and the second arrangement section.

Abstract: Multifunction assembly comprised of: an outer surface structure (CAR) containing a side door (D) that supports at least one exterior mirror assembly (RVM), an exterior door handle assembly (HE) of said door, and an exterior laser emitter (LE1) which emits a fixed and direct line of laser light (LL1) downwards on said ground adjacent to the vehicle, indicating an area (DA) where the doors open and combines functions associated with other indicator signal devices (BL), sensors and open door commands, and an ultraviolet light emitter device (EUV).

Abstract: The present disclosure provides an illumination feature for an electronic device. A light cone is used to direct light from a light emitter to an interior surface of a housing of an electronic device in one of a variety of geometric, alphabetic, or numerical designs.

Abstract: The present disclosure provides a backlight source, including: a light-guide plate, a diffuser arranged at a light-exiting side of the light-guide plate, and a light bar arranged at a light-entering side of the light-guide plate and including a light-emitting diode (LED) lamp and a flexible circuit board connected to the LED lamp. The flexible circuit board includes a base material, and a first solder mask and a second solder mask arranged at two surfaces of the base material opposite to each other. The base material includes a first region where the second solder mask is arranged and a second region where the second solder mask is not arranged. The second region is located at a side of the base material adjacent to the light-guide plate. The diffuser includes, at an end adjacent to the light bar, a connection member partially or completely covering the second region.

Abstract: At least some aspects of the present disclosure feature a flexible display including a plurality of functional layers, a plurality of bonding layers, and a stiff layer. Each of the plurality of bonding layers is disposed between two adjacent functional layers. The stiff layer having an elastic modulus greater than elastic modulus of the plurality of functional layers to adjust a position of a neutral plane of the flexible display within the display layer.

Abstract: A gas-free light bulb device has a lamp head, heatsink, a bulb, a glass core column, multiple filament assemblies, and a resilient extending element. The heatsink is mounted on the lamp head and has a mounting slot and a driver circuit board mounted in the mounting slot. The bulb is mounted on the heatsink and has a cavity. The glass core column is mounted in the mounting slot. The filament assemblies are mounted on the glass core column. The resilient extending element is mounted on the glass core and has a resilient rubber sleeve mounted around the glass core column and multiple resilient extending rubber bars connected respectively to the filament assemblies. When the gas-free light bulb device is operated with rising temperature, the resilient rubber sleeve is heated and loosened to slide upward and drive the filament assemblies to contact the bulb to effectively dissipate heat.

Abstract: A lens component disperses light from a source having a distribution characteristic in which luminosity becomes smaller according to distance from the optical axis. The component includes an incidence portion at a source position struck by light from the source and guiding portions branching from the incidence portion and extending radially from the source position. Each guiding portion includes a basal end portion joined to the incidence portion, emission end portion emitting light away from the source, and reflection surface guiding light that struck the basal end portion while performing internal reflection. The incidence portion and guiding portions form a light distribution structure arranged so that a ratio of luminosity in a direction making a predetermined angle with the optical axis with respect to luminosity in the axial direction in light emitted from the structure is larger than a corresponding ratio in the source's distribution characteristic.

Abstract: The present invention relates to a device carrier (10) for a strip-lighting luminaire, comprising: first lines (14) for forming a first power supply circuit; second lines (14) for forming a second power supply circuit; and at least one converter unit (12) for electrically coupling the first to the second power supply circuit, said converter unit being mounted on the device carrier (10). The first lines (14) are arranged on a rear face of the device carrier (10) so that the first lines (14) are concealed by the device carrier (10) in the mounted state of the strip-lighting luminaire. The invention further relates to a strip-lighting luminaire comprising at least one device carrier (10) according to the invention.

Abstract: This vehicle lamp includes a light source part having a semiconductor-type light source, a second lens disposed in front of the light source and having a second lens part, and a first lens disposed between the light source and the second lens and having a first lens part that converts a light cone of the light source into a cone connecting the second lens part and a basic focal point P of the second lens part, wherein the first lens part is formed such that it radiates the light coming from the light source and entering an incident surface located on the horizontally outer side of the first lens part after converting it into inward light so that the light enters an incident surface located on the horizontally outer side of the second lens part.

Abstract: An indicator has an optical member including a protuberance formed on a front side and an indentation formed on a back side of the optical member in which the indentation is smaller than the protuberance in terms of a projection area and in which the front-side protuberance fits into the opening in a front face of the housing; and an LED light source disposed opposite the back-side indentation of the optical member. A center axis of the front-side protuberance and a center axis of the backs-side indentation are in line with an optical axis of the LED light source. Light originating from the LED light source passes through the back-side indentation and the front-side protuberance, exiting from the opening in the front face of the housing. Thereby, only the center of the rectangular opening looks lighting up brightly, rectangularly.

Abstract: A standing lamp includes a stand; first and second luminaire modules, each comprising a plurality of light emitting elements (LEEs) distributed along a first direction, a light guide and a housing configured to house at least the LEEs and to support the light guide; and a mount attaching the first and second luminaire modules to the stand.

Abstract: A vehicle capacitive key input pad assembly includes a pad comprising a region defining an illuminated character. The assembly also includes a first electrode having electrode fingers and extending at least partially around the illuminated character region, and a second electrode having electrode fingers and at least partially extending into the character region. One or more electrode fingers trace a portion of the illuminated character.

Abstract: An electronic device according to an embodiment includes an electronic component and equipment. The equipment includes a mounting surface on which the electronic component is mounted via a coating agent and on which a recessed portion is provided along a part of a circumferential end portion of the electronic component.

Abstract: A light fixture comprises: a base; a light carrier pivotally mounted to the base; a light source carried by the light carrier; and an optic carried by the light carrier; wherein: the light source is mounted for adjustable spacing between the light source and the optic.

Abstract: Embodiments provide a light source module including a circuit board, at least two point light sources, which are electrically connected to the circuit board and are arranged on an upper surface of the circuit board in a longitudinal direction of the circuit board, and a light guide for guiding light, which is introduced from the point light sources, in an upward direction of the circuit board, wherein the light guide includes a first reflective wall, disposed on the upper surface of the circuit board, and a second reflective wall, disposed on the upper surface of the circuit board, such that a space, in which the point light sources are disposed, is defined between the first reflective wall and the second reflective wall. Embodiments also provide a planar light source device including the light source module.

Abstract: A lighting system configured to fit with a box or strip housing and a method of fitting a lighting system with a box or strip housing are presently disclosed. At least one longitudinally extending light source is held with a light source support. At least two hinges extend from the light source support, proximate a first edge, at least two mounting arms extend from the second side of the light source support, proximate a second edge, wherein the first edge and the second edge of the light source support are parallel.

Abstract: Disclosed is a lighting fixture comprising at least three light functions, said lighting fixture being a trifunctional projector. In particular, a vehicle headlight is disclosed, which has in addition to a dipped beam and a main beam a daytime running light and/or a position light as a further light function.

Abstract: The multifunction LED lighting apparatus of the present invention includes a least one lighting LED, at least one ultraviolet (UV) LED, a substrate configured to have the at least one lighting LED and the at least one UV LED mounted thereon, and a cover disposed to face the substrate at a specific interval and configured to cover the lighting LED and the UV LED. The at least one lighting LED and the at least one UV LED are integrally mounted on the substrate and configured to form a single module of a thin sheet form, and the cover is installed to cover and support the single module placed on the inside wall of an application.

Abstract: An LED light bulb includes a bulb shell, a bulb base, a stem, conductive supports, an LED filament, and a supporting arm. The bulb base is connected to the bulb shell. The stem is connected to the bulb base. The conductive supports are connected to the stem. The LED filament includes a filament body and two conductive electrodes. The conductive electrodes are at two ends of the filament body and connected to the conductive supports. The filament body is around the stem. The supporting arm is connected to the stem and the filament body. In a height direction of the LED light bulb, H is a distance from a bottom to a top of the bulb shell. A first height difference is defined between the two conductive electrodes and is from 0 to 1/10H. The filament body is curved to form a highest point and a lowest point. A second height difference is defined between the highest point and the lowest point. The first height difference is less than the second height difference.