Abstract: According to one embodiment, a light source device includes a light source element including a first light emitting element which emits light of a first wavelength and a second light emitting element which emits light of a second wavelength, a first wavelength conversion material which is excited by the light from the first light emitting element to emit light of a third wavelength, and a second wavelength conversion material which is excited by the light from the second light emitting element to emit light of a fourth wavelength, wherein cyan light produced by the light emission of the first light emitting element and magenta light produced by the light emission of the second light emitting element are emitted from the same light emitting surface.

Abstract: A headlamp including a matrix static bending lights (SBL) optical system, which enables light to be turned on/off. The headlamp includes a headlamp body installed in a front region of a vehicle and including a main optical system for irradiating light, corresponding to one of a low beam headlight, a high beam headlight, and a glare free high beam (GFHB) headlight, onto the front of the vehicle, a reflective structure disposed on one side surface of the inside of a housing of the headlamp body with respect to a direction intersecting an installation reference direction of the main optical system and including a plurality of reflective surfaces, and a light source unit disposed apart from the reflective structure and including a plurality of light source chips that target at a reflective surface of the reflective structure and irradiate light onto the targeted reflective surface.

Abstract: An LED luminaire comprising: at least one directional light-emitting element configured to emit directional light from the luminaire; at least one nondirectional light-emitting element configured to emit non-directional light from the luminaire, the at least one nondirectional light-emitting element being optically coupled to the at least one directional light-emitting element; and at least one LED light source for emitting light and being optically coupled to at least one of the at least one directional light-emitting element or the at least one nondirectional light-emitting element.

Abstract: In described examples, a DMD includes micromirrors. A first light source generates a first beam profile illuminating a first set of micromirrors of the DMD. A second light source generates a second beam profile illuminating a second set of micromirrors of the DMD. The first and second beam profiles partially overlap on at least some micromirrors of the DMD. The first light source is source-modulated independently of the second light source for adjusting power and brightness in response to a sensed driving condition. The micromirrors of the DMD are modulated in response to the sensed driving condition.

Abstract: A lighting arrangement has a housing having an interior and a light outlet region, and at least one light-providing device. The light-providing device is configured such that it can be arranged within the interior to emit light during operation through the light outlet region to the outside. The light-providing device can be coupled to the housing and can be freely positioned at least within one region of the interior. A second lighting arrangement has a housing having an interior and a light outlet region, the housing having an opening, which is set up to guide at least one line through the opening out of the interior. The second lighting arrangement has at least one brush, which is provided with hairs or fibers or bristles, which are arranged in the opening and/or cover the opening at least in portions.

Abstract: A lighting apparatus for vehicles with a number of semiconductor-based light sources and a projection device for generating the specified light distribution with a cut-off line. The projection device features a correction device with at least two lenses. The surface of at least one of the lenses is designed as a diffractive lens surface for achromatization in a visible wavelength range. The two lenses are made from different lens materials. The surfaces of at least two lenses are designed as refractive lens surfaces that have their optical power calculated based on a temperature range and/or expansion coefficient of the lens material of at least two lenses such that adding the optical power of the lenses yields a predefined total optical power of the correction device.

Abstract: A light source unit includes a heat-dissipation member having positive expansibility that volume is expanded with an increase in temperature, the heat-dissipation member having a through-hole, a heating component having a heating component body and a pin terminal, the heating component body fixed to the heat-dissipation member in one opening side of the through-hole, the pin terminal connected to the heating component body, and inserted through the through hole and protruding from the other opening side of the through-hole of the heat-dissipation member a substrate fixed to the heat-dissipation member in the other opening side of the through-hole and having a wiring connected to the pin terminal, and a buffering member having negative thermal-expansibility that volume is contracted with an increase in temperature.

Abstract: A light-emitting-element mounting substrate according to the present invention includes a substrate, a mount portion for mounting a light emitting element on a main surface of the substrate, and a resin frame surrounding the mount portion in plan view and to be in contact with an encapsulant for encapsulating the light emitting element to be mounted. The resin frame includes a recess in a main surface thereof, the recess surrounding the mount portion in plan view.

Abstract: Lighting modules and systems including a heat sink are generally disclosed. The exemplary embodiments include a lighting module having a light emitting diode (LED) board including at least one LED, a heat sink in thermal communication with the LED board for dissipating heat generated by at least the LED board, and a separate component board that is thermally insulated from the LED board and may include, for example, an LED driver, a power management component, a power conversion component, an LED control component, and a dimming component. At least one of the LED board and component board may be a printed circuit board (PCB).

Abstract: A lighting arrangement can include a luminaire and a first plurality of spring arms. The luminaire can include a housing assembly and a light emitter portion at least partially enclosing the light emitter portion. The first plurality of spring arms can each be engageable with the luminaire and extend from a respective base end to a respective distal end. The base ends can be positioned closer to the housing assembly than the distal ends. Each of the first plurality of spring arms can extend vertically upward and away from the housing assembly along the axis such that the base ends are vertically lower than the distal ends. Each of the first plurality of spring arms can extend along a torturous path and be cantilevered off of the housing assembly.

Abstract: A light module of a headlamp includes several laser emitters, several collimators, a light circulating device, a liquid crystal panel, and a projection lens in sequence. The light circulating device includes a filter, a first polarizer, a first reflector, a wavelength transforming layer, a second reflector, and a second polarizer to convert laser rays of the laser emitters into white laser rays with a predetermined polarization for the liquid crystal panel, and finally to project out through the projection lens.

Abstract: A backlight module includes a bottom plate, and a fixing element which is fixed at one side of the bottom plate and used for fixing a quantum tube. The fixing element includes a bottom wall, and a first lateral wall, a second lateral wall, and a third lateral wall which extend upwards from a first end, a second end, and a third end of the bottom wall respectively. The first lateral wall and the second lateral wall are arranged facing each other. The quantum tube is fixed in an accommodating space that is formed by the bottom, the first lateral, the second lateral, and the third lateral walls. In the backlight module, since the quantum tube is fixed in a stable manner, a structural reliability of the backlight module can be ensured, and a high color gamut of the backlight module can be realized.

Abstract: A lighting configuration for providing improved vision acuity includes a first light source emitting light having a first wavelength peak in the range from 500 to 530 nm; a second light source emitting light having a second wavelength peak in the range from 600 to 640 nm; and a third light source emitting light having a third wavelength peak in the range from 440 to 460 nm. The radiated power at 555 nm is less than 15% of the radiated power at the wavelength of the second wavelength peak. The light configurations are characterized by an S/P ratio between 2 and 5. Optionally the radiated power at 480 nm is at least 20% of the second wavelength peak. The light sources used in the lighting configuration can be LEDs, preferably LEDs that are substantially free of a color conversion layer.

Abstract: An illuminating device is disclosed including a lower base having a plurality of lower pivot receivers. An upper base has a plurality of upper pivot receivers. A plurality of rods are pivotably coupled to the lower base and the upper base. The plurality of rods convert between a general linear configuration and a general arcuate configuration upon converging the lower base with the upper base. The first rod and the second rod convert between the general arcuate configuration and the general linear configuration upon diverging the lower base with the upper base. A lock extends between the lower base and the upper base for terminating displacement of the lower base relative to the upper base. A plurality of illuminating devices are coupled to the plurality of rods.

Abstract: A lamp (10) for replacement of a HPS or HID lamp, is disclosed that comprises a support element (13) including a mounting shaft (15) extending therefrom, said mounting shaft being substantially parallel and having lateral displacement relative to a central axis of the lamp and a plurality of modules (20) each comprising a heat spreading element (23) wherein at least one module is mounted on the mounting shaft and is rotatable about the mounting shaft such that said at least one module can be pivoted between a first orientation in which the modules cooperate to define a closed structure; and a second orientation in which the at least one module is pivoted away from at least one neighboring module to define an opened structure.

Abstract: A connecting terminal free of dark spots for a light strip, comprising a bracket, wherein the bracket is fixedly provided with two pin groups, each pin group comprises at least two pins, the pins in each pin group are in communication with each other, the pin is made of a conducting material; a light using the connecting terminal free of dark spots for light strip comprises a plurality of light strips and said connecting terminal, the light strip are provided with two connecting jacks at both ends thereof, each connecting jack is connected with one of the pins in each corresponding pin group. The connecting terminal employing the above structure is convenient and rapid; thus realizing the connection free of dark spots of the light strip. The installation is also very convenient. Therefore, the structure is simple and useful, with remarkable technical effects.

Abstract: A backlight includes a front and back reflector forming a light recycling cavity and one or more light source members disposed to emit light into the light recycling cavity. The front reflector being partially reflective to provide an output illumination area. The front reflector has a blue sloped transmission spectra, at normal incidence with a range among bin values from 15% to 100%.

Abstract: An LED light bulb including a heat sink, an LED light board on a first end of the heat sink, a light-transmissive cover, and a power source drive module on a second end of the heat sink opposite to the first end. The LED light board includes a substrate and a plurality of LED lights on the substrate. The light-transmissive cover includes a cover body and a series of hooks on an edge of the cover body. The hooks are configured to detachably engage the LED light board or the heat sink to attach the light-transmissive cover.

Abstract: The disclosure relates to an illumination element for a vehicle. The illumination element comprises an outer trim part, illumination means, and a transparent cover arrangement between the trim part and the illumination means. The disclosure also relates to a vehicle comprising at least one such illumination element, and a control element for a device for opening or unlocking a vehicle.

Abstract: Described are an improved automated multi source luminaire and luminaire systems. More particularly a multicolor LED array luminaire system with a series of lenses and light louvers to control the light beam.