A light emitting module for a vehicle is disclosed. The light emitting module includes a first light source configured to generate a first light during an operation, a light concentrator disposed in a forward direction of the first light and configured to change the forward direction of the first light through reflection or refraction, a second light source spaced apart from the first light source and configured to generate a second light in a direction different from the first light, and a lens unit disposed in a forward direction of the second light, and configured to change the forward directions of the first light and the second light.

Disclosed are an ADB function adjustment method and a vehicle light, wherein a superposed illumination light shape is formed by a periodic high-speed change of a light shape; the periodic high-speed change of the light shape may be a shape change (dynamic superposition of light shapes) or a position change or a synchronous change in shape and position; and a light source is quickly switched off in conjunction with the periodic change of the light shape to generate one or more local dark areas, thereby realizing an adaptive driving beam function.

A lamp unit includes a light source including a plurality of light emitting elements provided in a common substrate; a projection lens that projects light emitted from the light source toward a front of the lamp unit to form a required light distribution pattern; and a light-transmitting body disposed between the light source and the projection lens and that forms a projection image by controlling transmission of light emitted from the light source. The light transmitting body includes a plurality of incident portions that causes light emitted from each of the plurality of light emitting elements to be incident, and the light transmitting body and the substrate are supported by a lens holder that supports the projection lens.

A control device for a vehicle lamp controls an adjustment of an optical axis angle of a vehicle lamp provided with a vibration generating source that vibrates at a first frequency, and the control device includes an acceleration sensor provided in the vehicle lamp and configured to sample an acceleration at a second frequency that is a non-integral multiple of the first frequency, a receiving unit that receives a signal indicating an output value from the acceleration sensor, and a controlling unit that executes control of adjusting the optical axis angle of the vehicle lamp on the basis of the output value from the acceleration sensor.

Provided are a vehicle lamp III-zone illumination structure, vehicle lamp condenser, automobile illumination module, and automobile. The illumination structure comprises a III-zone light-incident part and a III-zone light-emitting part, sequentially arranged along the direction of incidence of light beams; The light-incident part comprises two light-transmitting tabs distributed in the horizontal direction; each tab comprises a III-zone light-incident surface, and the structure of the tabs is suitable for forming a light expansion profile, the normal direction of the light-incident surface faces the light-emitting part; the III-zone forming light beams are incident on the light-incident surface, and after being diffused by the light-incident surface, illuminate toward the light-emitting part, and are emitted via the light-emitting part. Also provided are a vehicle lamp condenser of the illumination structure, an automobile illumination module comprising the vehicle lamp condenser, an automobile illumination apparatus comprising the automobile illumination module, and an automobile comprising the automobile illumination apparatus.

An vehicle light optical element (1) related to the technical field of vehicle lighting. The optical vehicle light element (1) comprises a light incident portion (10), a light transmission portion (11), and a light emitting portion. Two ends on the light transmission portion (11) in a light emitting direction are respectively a light incident end and a light emitting end. The light incident portion (10) comprises at least one light incident structure (13) provided at the light incident end of the light transmission portion (11) and corresponding to a light source (20). The light emitting portion comprises a light emitting surface (12) protruding from the light emitting end of the light transmission portion (11) towards the light emitting direction. A cross-sectional area of the light transmission portion (11) gradually increases from the light incident end to the light emitting end. The light incident portion (10) and the light emitting portion of the vehicle light optical element (1) are provided on the same optical structure. Therefore, no optical path needs to be built, and an assembly relationship is simple, thereby simplifying the structure of the vehicle light optical element (1), and improving optical system precision of the vehicle light optical element (1).

An on-board infrared illumination device includes an infrared light source that provides for-camera infrared illumination by irradiating, with infrared radiation, a plurality of irradiation areas included in an imaging range within an exposure time of an on-board infrared camera, a light source controller configured to control the infrared light source to form a plurality of irradiation patterns at a timing different from a timing for the for-camera infrared illumination, and an infrared sensor. Each irradiation area is formed such that one or more different irradiation areas among the plurality of irradiation areas are selectively irradiated with the infrared radiation. The light source controller controls the infrared light source to adjust an illuminance of the for-camera infrared illumination on each irradiation area independently of each other on the basis of a sensor signal output from the infrared sensor for each of the plurality of irradiation patterns.

A lighting apparatus of an autonomous vehicle including a lamp box disposed in a roof part of a vehicle; one or more front lamp units housed in a front portion of the lamp box and configured to distribute light to a forward area of the vehicle; one or more rear lamp units housed in a rear portion of the lamp box and configured to distribute light to a rearward area of the vehicle; one or more interior lamp units disposed at the bottom of the lamp box, and configured to distribute light to an indoor area of the vehicle; and a control unit configured to control operations of the front lamp unit, the rear lamp unit and the interior lamp unit.

A lighting apparatus of an autonomous vehicle including a lamp box disposed in a roof part of a vehicle; one or more front lamp units housed in a front portion of the lamp box and configured to distribute light to a forward area of the vehicle; one or more rear lamp units housed in a rear portion of the lamp box and configured to distribute light to a rearward area of the vehicle; one or more interior lamp units disposed at the bottom of the lamp box, and configured to distribute light to an indoor area of the vehicle; and a control unit configured to control operations of the front lamp unit, the rear lamp unit and the interior lamp unit.

Disclosed are a lamp for an automobile and an automobile including the lamp. According to one aspect of the present disclosure, provided is a lamp for an automobile, the lamp including: a first light source and a second light source which respectively generate and emit first light and the second light; a first light guide unit and a second light guide unit which are respectively provided in front of the first light source and the second light source and respectively include a first rod and a second rod to provide paths through which the first light and the second light travel; and a lens unit at which the first light emitted from the first light guide unit and the second light emitted from the second light guide unit arrive.