A vehicle headlight aiming device is provided that includes, a device housing having an input drive gear, a screw chamber, an output screw having a screw shaft, a screw first end that is rotationally coupled at least indirectly with the input drive gear, and a screw second end. The device further including an indicator nut having a base with a nut indicator mark, a first leg and second leg extending from a base bottom portion, and an expandable threaded opening extending between a first threaded wall of the first leg and a second threaded wall of the second leg, the threaded walls selectively engageable with a threaded portion of the screw shaft, wherein the threaded opening is expandable to disengage the first threaded wall and the second threaded wall from the threaded portion to allow longitudinal movement of the indicator nut withing the device housing without rotating the output screw.

A vehicle headlamp alignment system is provided that includes a headlamp located on a vehicle, an adjuster module for adjusting aim of the headlamp, and a camera located on the vehicle. Sensors may determine distance and orientation of the vehicle relative to a wall. A controller processes images of a beam on the wall acquired by the camera and determines the aim of the headlamp based on the images. The controller controls the adjuster module to align the headlamp based on the determined aim.

A clutching adjuster having a housing with a nose, the nose including a plurality of discrete helically-shaped thread segments, a ball stud journaled by a ball stud bore for axial movement therethrough and passing through the nose of the housing, the ball stud having a threaded portion, an unthreaded portion, a ball, and a drive spline portion, an outbound annular travel barrier and an inbound annular travel barrier, wherein, in length of travel clutching operation and end of travel clutching operation where the ball stud is axially rotated through the ball stud bore, the receipt of an undue axial force of resistance on the ball stud results in outward deflection of engaged thread segments, thereby allowing the threaded engagement between the threaded portion of the ball stud and the thread segments to clutch.

A holding device of a lighting module of a lighting unit of a vehicle, comprising a securing section for securing the holding device to the rest of the lighting module and a bearing section for supporting the holding device on a bearing pin of the lighting unit, wherein the bearing section has at least one lock which forms a locking connection together with the bearing pin when the holding device is assembled, and wherein the lock is designed such that the locking connection simultaneously forms a joint which enables the lighting module to rotate about a longitudinal axis of the bearing pin. A lighting module and a lighting unit of a vehicle are also provided.

A holding device of a lighting module of a lighting unit of a vehicle, comprising a securing section for securing the holding device to the rest of the lighting module and a bearing section for supporting the holding device on a bearing pin of the lighting unit, wherein the bearing section has at least one lock which forms a locking connection together with the bearing pin when the holding device is assembled, and wherein the lock is designed such that the locking connection simultaneously forms a joint which enables the lighting module to rotate about a longitudinal axis of the bearing pin. A lighting module and a lighting unit of a vehicle are also provided.

The present disclosure relates to a vehicle lamp, and a vehicle lamp according to the present disclosure includes a first optical module that forms a first light distribution pattern using light irradiated from a first light source device, a second optical module that forms a second light distribution pattern using light irradiated from a second light source device, a third optical module that forms a third light distribution pattern using light irradiated from a third light source device, a movement part that is connected to the first light source device and moves the first light source device, a rod part connected to the second light source device and interlocked with the movement part to rotate the second light source device, and a driving part that provides a driving force to the movement part and the rod part.

The present disclosure relates to a vehicle lamp, and a vehicle lamp according to the present disclosure includes a first optical module that forms a first light distribution pattern using light irradiated from a first light source device, a second optical module that forms a second light distribution pattern using light irradiated from a second light source device, a third optical module that forms a third light distribution pattern using light irradiated from a third light source device, a movement part that is connected to the first light source device and moves the first light source device, a rod part connected to the second light source device and interlocked with the movement part to rotate the second light source device, and a driving part that provides a driving force to the movement part and the rod part.

An adjuster gear screw is provided that includes an adjuster shaft having a threaded portion and a shaft end, a gear head having a plurality of radial protrusions spaced by a plurality of radial indents, and a flange having a flange front surface, an elongated neck interconnecting the adjuster shaft and the gear head, and a gear having a gear rear surface, a plurality of teeth, and a plurality of fingers and notches extending along an inner circumference, wherein the gear is axially secured to the gear head in a first longitudinal direction via abutment of the gear rear surface with the flange front surface, and in a second longitudinal direction via engagement of the plurality of fingers with the plurality of indents, and wherein the gear is rotationally secured to the gear head via abutment of the plurality of radial protrusions with the plurality of notches.

A positioning device (10) for pivoting at least one relevant component (20) for a motor vehicle headlight about a first and a second axis (X, Y), comprising a holding element (100) for a relevant component (20), said holding element comprising a first sliding surface (110), which is designed as part of a spherical surface, a support frame (200), which comprises a second sliding surface (210), which is designed as part of a spherical surface, the holding element (100) being supported in the support frame (200) by means of a bearing apparatus such that the first sliding surface (110) of the holding element (100) can be displaced along the second sliding surface (210) of the support frame (200) about the first and second axis (X, Y), an adjusting apparatus (300), which has a positioning component (301) and a first moving apparatus (310) and a second moving apparatus (320), which are each arranged on the positioning component (301), which is mechanically connected to the holding element (100) by means of a connecting element (400), wherein the connecting element (400) passes through the support frame (200) via an opening (220), wherein the connecting element (400) is designed to transmit a movement of the positioning component (301) to the holding element (100), and wherein the connecting element is designed as a screw means, wherein the positioning component can be brought into a released state and a fastened state, wherein the positioning component can be displaced when in the released state, and the positioning component (301) can be clamped immovably against the support frame when in the fastened state by tightening the screw means.

A light assembly for attachment to a surface of a vehicle. The light assembly includes a vehicle base configured to be coupled to the surface of the vehicle and a light head coupled to the vehicle base. The light head is configured to rotate relative to the vehicle base about a first axis and about a second axis that is different from the first axis. The light head is configured to rotate about the first and second axes at a first speed in response to a first user input, and to rotate about the first and second axes at a second speed that is different from the first speed in response to a second user input.