A headlamp device includes a headlamp, an object detector, and a controller. The headlamp is mounted on a vehicle and includes a light emitting unit composed of multiple light emitting cells. The object detector detects an object around the vehicle and generates an object detection signal including object coordinates corresponding to a location of the detected object. The controller controls light of the headlamp based on information on the object coordinates. The controller may control the light emitting unit such that at least some light emitting cells are turned off according to an object detection signal. Each of multiple light emitting units includes a circuit board, the multiple light emitting cells separated from each other on the circuit board, a molding member formed between the light emitting structures, and a protective member formed on the molding member to surround sides of the multiple wavelength conversion members while filling a gap between the multiple wavelength conversion members

The invention relates to a lighting device, for a motor vehicle, including a plurality of light sources, which have a plurality of primary lenses dedicated to each of the respective light sources for focusing the light emitted by the respective light sources. The lighting device also has a secondary optics element which has a plurality of light entry surfaces dedicated to each respective light source and one light exit surface. A grid is located downstream of the light exit surface on the secondary optics element in the exit direction of the light, for segmenting the light exiting the light exit surface.

The invention relates to a lighting device, for a motor vehicle, including a plurality of light sources, which have a plurality of primary lenses dedicated to each of the respective light sources for focusing the light emitted by the respective light sources. The lighting device also has a secondary optics element which has a plurality of light entry surfaces dedicated to each respective light source and one light exit surface. A grid is located downstream of the light exit surface on the secondary optics element in the exit direction of the light, for segmenting the light exiting the light exit surface.

A vehicle headlight (1) is equipped with: a light source unit (10) for forming a light distribution pattern which can be changed by light beams emitted from a light source group (130); and a control unit (CO). In a case where a detection signal of another vehicle present in front of an ego-vehicle (100) is inputted from a detection unit (29) for detecting the other vehicle, the control unit (CO) causes first light sources of the light source group (130), which emit light toward a first region (AR1) including a region overlapping a visual recognition part of the other vehicle used by a driver thereof to visually recognize the outside of the other vehicle, to emit light having a lower intensity than in a case where no detection signal is inputted, and causes second light sources, among second light sources of the light source group (130) that emit light toward a second region (AR2) surrounding the first region (AR1), which emit light toward a lower-side region (BA1) lower than the first region (AR1), to emit light with an increasingly lower intensity toward the side closer to the first region (AR1).

An example system includes an infrared emitter to output infrared light towards a target, where the infrared light reflects from the target to produce reflected infrared light, and a detector to receive the reflected infrared light and to provide a signal based on the reflected infrared light. The system also includes a lighting system that includes a light emitter to output visible light, a mirror configured (i) to allow the visible light to pass through the mirror and to reflect the reflected infrared light onto the detector, or (ii) to allow the reflected infrared light to pass through the mirror and onto the detector and to reflect the visible light, and one or more optical elements configured to affect the visible light and the reflected infrared light.

A vehicle lighting device includes a high-light source group, a low-light source group, a high-beam lens to transmit light from the high-beam light source and emit the light to outside, a low-beam lens to transmit light from the low-beam light source and emit the light to outside, a circuit board having the high-beam light source and the low-beam light source mounted thereon together, and a reflector that guides light emitted from the low-beam light source to the low-beam lens, where the circuit board is inclined in a front-rear direction and an up-down direction.

A light distribution method is for an adaptive driving beam headlamp system including a light emitting device, an on-board camera and an electronic control unit. The light distribution method includes: obtaining data indicative of a state in front of a vehicle by the on-board camera; computing one or more of: attributes of an object in front of the vehicle; attributes of a vehicle ahead; a speed of the vehicle ahead; a distance between vehicles; brightness of the object; and a road shape; determining a light distribution pattern; determining a control amount indicative of at least one of an ON or OFF state of each of the light emitting elements and an applied power to each of the light emitting elements according to the light distribution pattern determined; and controlling driving of the adaptive driving beam headlamp system based on the control amount determined.

A light distribution method is for an adaptive driving beam headlamp system including a light emitting device, an on-board camera and an electronic control unit. The light distribution method includes: obtaining data indicative of a state in front of a vehicle by the on-board camera; computing one or more of: attributes of an object in front of the vehicle; attributes of a vehicle ahead; a speed of the vehicle ahead; a distance between vehicles; brightness of the object; and a road shape; determining a light distribution pattern; determining a control amount indicative of at least one of an ON or OFF state of each of the light emitting elements and an applied power to each of the light emitting elements according to the light distribution pattern determined; and controlling driving of the adaptive driving beam headlamp system based on the control amount determined.

A vehicle headlight includes a first light distribution variable lighting unit and a second light distribution variable lighting unit each having a plurality of light emitting devices and a projection lens that projects light emitted from the plurality of light emitting devices and that are configured to variably control a light distribution pattern of light emitted from the projection lens while switching lighting of the plurality of light emitting devices, wherein the first light distribution variable lighting unit radiates light having a first light distribution pattern toward a side in front of the projection lens with respect to a predetermined radiation range, and the second light distribution variable lighting unit radiates light having a second light distribution pattern toward the side in front of the projection lens with respect to at least a vicinity of a reference center of the radiation range.

A vehicle headlight includes a first light distribution variable lighting unit and a second light distribution variable lighting unit each having a plurality of light emitting devices and a projection lens that projects light emitted from the plurality of light emitting devices and that are configured to variably control a light distribution pattern of light emitted from the projection lens while switching lighting of the plurality of light emitting devices, wherein the first light distribution variable lighting unit radiates light having a first light distribution pattern toward a side in front of the projection lens with respect to a predetermined radiation range, and the second light distribution variable lighting unit radiates light having a second light distribution pattern toward the side in front of the projection lens with respect to at least a vicinity of a reference center of the radiation range.