A light conductor (1) for a vehicle light, comprising a light entrance part (11) and a light exit part (12), the light entrance part (11) being provided with a first single orientation alignment plane (13), the light exit part (12) being provided with a second single orientation alignment plane (14), and the alignment orientation of the first single orientation alignment plane (13) being perpendicular to the alignment orientation of the second single orientation alignment plane (14). The light rays emitted by a light source arranged at the light entrance part (11) can thus be formed into a light spot with bright and dark boundaries and having the required shape. Also disclosed is a full beam illumination module, comprising a plurality of light-emitting chips (2), a circuit board (3), a heat sink (4), and the light conductor (1) for a vehicle light, and capable of forming an illumination light shape composed of a plurality of light spots with bright and dark boundaries.

A light conductor (1) for a vehicle light, comprising a light entrance part (11) and a light exit part (12), the light entrance part (11) being provided with a first single orientation alignment plane (13), the light exit part (12) being provided with a second single orientation alignment plane (14), and the alignment orientation of the first single orientation alignment plane (13) being perpendicular to the alignment orientation of the second single orientation alignment plane (14). The light rays emitted by a light source arranged at the light entrance part (11) can thus be formed into a light spot with bright and dark boundaries and having the required shape. Also disclosed is a full beam illumination module, comprising a plurality of light-emitting chips (2), a circuit board (3), a heat sink (4), and the light conductor (1) for a vehicle light, and capable of forming an illumination light shape composed of a plurality of light spots with bright and dark boundaries.

A vehicle headlight (1) includes a first lamp unit (10), a second lamp unit (20), a region determination unit (55), and a control unit (CO). A first irradiation spot (S1f) overlaps with a second irradiation spot (S2). The control unit (CO) controls the first lamp unit (10) so that an amount of the light of a light emitting element (13f) corresponding to the first irradiation spot (S1f) overlapping with a predetermined region (80) is reduced, and controls the second lamp unit (20) so that an amount of the light of a light emitting element (23) corresponding to the second irradiation spot (S2) overlapping with the predetermined region (80) is reduced or becomes 0, and light is emitted from the light emitting element (23) corresponding to the second irradiation spot (S2) overlapping with the first irradiation spot (S1f) and not overlapping with the predetermined region (80).

An apparatus includes an illumination source including a first illumination source segment and a second illumination source segment. The apparatus also includes driver circuitry coupled to the illumination source, the driver circuitry including a first driver coupled to the first illumination source segment, the first driver configured to produce a first drive signal to instruct the first illumination source segment to produce a first light having a first illumination intensity. The driver circuitry also includes a second driver coupled to the second illumination source segment, the second driver configured to produce a second drive signal to instruct the second illumination source segment to produce a second light having a second illumination intensity.

A vehicle comprises a first lighting assembly disposed to the left of a longitudinal axis of the vehicle and comprising a first array of independently operable light emitting diodes and a first projection lens arranged to form a front left light beam for the vehicle from light output from the first array of light emitting diodes, a second lighting assembly disposed to the right of the longitudinal axis of the vehicle and comprising a second array of independently operable light emitting diodes and a second projection lens arranged to form a front right light beam for the vehicle from the second array of light emitting diodes, and a controller configured to control activation of the light emitting diodes in the first array of light emitting diodes to adjust an angle between the front left light beam and the longitudinal axis of the vehicle and to control activation of the light emitting diodes in the second array of light emitting diodes to adjust an angle between the front right light beam and the longitudinal axis of the vehicle.

A vehicle comprises a first lighting assembly disposed to the left of a longitudinal axis of the vehicle and comprising a first array of independently operable light emitting diodes and a first projection lens arranged to form a front left light beam for the vehicle from light output from the first array of light emitting diodes, a second lighting assembly disposed to the right of the longitudinal axis of the vehicle and comprising a second array of independently operable light emitting diodes and a second projection lens arranged to form a front right light beam for the vehicle from the second array of light emitting diodes, and a controller configured to control activation of the light emitting diodes in the first array of light emitting diodes to adjust an angle between the front left light beam and the longitudinal axis of the vehicle and to control activation of the light emitting diodes in the second array of light emitting diodes to adjust an angle between the front right light beam and the longitudinal axis of the vehicle.

A headlamp (10) for a motor vehicle has a first projection device (12) for illuminating a wide surface (18) and a second projection device (14) laterally offset from the first projection device (12) for illuminating a narrow surface (20) lying within the wide surface (18). Intensity profiles (22, 24) of light emitted by the first and second projection devices (12, 14) are matched in the lateral direction such that, in at least one lateral peripheral region of the narrow surface (20), a gradual transition to the intensity in the wide surface (18) outside the narrow surface (2) and a substantially constant intensity between the lateral peripheral regions of the narrow surface (20) within the narrow surface (20) occur. Intensity profiles (22, 24) of the projection devices (12, 14) are designed for a shorter distance than a projection distance designated for the wide surface (18) and the narrow surface (20).

A headlamp (10) for a motor vehicle has a first projection device (12) for illuminating a wide surface (18) and a second projection device (14) laterally offset from the first projection device (12) for illuminating a narrow surface (20) lying within the wide surface (18). Intensity profiles (22, 24) of light emitted by the first and second projection devices (12, 14) are matched in the lateral direction such that, in at least one lateral peripheral region of the narrow surface (20), a gradual transition to the intensity in the wide surface (18) outside the narrow surface (2) and a substantially constant intensity between the lateral peripheral regions of the narrow surface (20) within the narrow surface (20) occur. Intensity profiles (22, 24) of the projection devices (12, 14) are designed for a shorter distance than a projection distance designated for the wide surface (18) and the narrow surface (20).

The disclosed subject matter generally relates to a lighting module integrable in a vehicle exterior which can provide sufficient or even improved lighting performance in a cost-efficient way. The proposed lighting module includes an array of light source units that are controllable to provide at least one of low beam light and high beam light, the array of light source units is adapted to extend along a transverse axis of the vehicle across a longitudinal center plane of the vehicle. Accordingly, the present disclosure provides a functional lighting module which can provide at least one of high beam light and low beam light that is arrangeable in the centre portion of the vehicle, between the common locations of the prior art headlamps.

Disclosed are a primary optical structure, a high-beam lighting device, and an anti-glare high-beam light. The primary optical structure comprises a reflection unit and a shading structure located in front for blocking part of the reflected light from the reflection unit. The primary optical structure is configured for use in a left vehicle lamp or a right vehicle lamp, where the shading structure is arranged at a left side portion or a right side portion of the lamp, respectively. The light blocked by the shading structure and the light that is not blocked are bounded by a right side edge or a left side edge respectively, and an upper side edge of the shading structure. In a vehicle lamp, the primary optical structure can form a high-beam profile having a dark area to prevent glare, such that the dark area formed has an adjustable width and position, improving driving safety.