A displacement system for simultaneous displacement of a first and a second light module of a lighting apparatus, wherein the first light module is mounted so that it can swivel about a first swivel axis and the second light module is mounted so that it can swivel about a second swivel axis, and wherein the two swivel axes extend parallel to each other. The displacement system includes a first and a second control shaft, wherein the control shafts are mounted so that they can be rotated about their respective longitudinal axis and moved linearly in the direction of their longitudinal axis, wherein the first and the second control shaft are connected in a torque-proof manner to a first and a second rotary element, so that when the first rotary element rotates, the first control shaft is rotated in the direction of rotation of the first rotary element, and when the second rotary element rotates, the second control shaft is rotated in the direction of rotation of the second rotary element, and wherein a third rotary element is provided, which cooperates with the first rotary element such that when the third rotary element rotates, the first rotary element is rotated, and wherein the first rotary element and the second rotary element cooperate such that when the first rotary element rotates, the second rotary element is rotated in the opposite direction to the direction of rotation of the first rotary element, and wherein the first and the second control shafts are mounted in such manner that as a consequence of the rotations by the first and second rotary elements caused by the rotation of the third rotary element they move linearly in opposite directions along their respective longitudinal axes, and wherein the swivel axes extend that the two light modules are swiveled simultaneously and in the same direction about their respective swivel axis.

A rotation center decoupling type aiming lamp applied to a vehicle includes an aiming device in which an aiming axis spaced apart from an aiming point reference line of an aiming point axis at a distance of an aiming adjustment height is operated as a rotation center of the reflector, and an aiming angle is changed through an aiming point axis to which the reflector is attached by a reflector bracket, such that the rotation center of the reflector adjusting a light radiation direction may be formed at a position above or ahead of the aiming point reference line, thereby reducing an occupation space of the aiming device and securing stability of the aiming driving, and particularly, a sufficient rear shock absorption space may also be secured in the aiming lamp, thereby securing structural robustness while satisfying low-speed collision regulations.

A dual light path forming type projection optical system may include a reflector allowing light generated from a light source to be formed into a lower reflecting light reflected to an upward path directing upward and an upper reflecting light reflected to a downward path directing downward, a prism lens allowing the upper reflecting light to be emitted as a prism low beam in which the downward path is changed into the upward path and allowing the prism low beam to be changed into a prism high beam by changing an incident angle of the upper reflecting light, and an aspheric lens for generating a low beam by allowing the prism low beam to be added to the lower reflecting light and generating a high beam by allowing the prism high beam to be added to the lower reflecting light.

A head lamp device of a straddle-type vehicle, comprises a housing; a pair of light units which are disposed at right and left sides, respectively, in a rightward and leftward direction, and emit light in a forward direction; a pair of support point members which support the pair of light units, respectively; a pair of first tilt members which tilt the pair of light units, respectively in a first direction with respect to the housing; and a pair of second tilt members which tilt the pair of light units, respectively in a second direction with respect to the housing, the pair of support point members are disposed in outward regions, respectively, of the housing in the rightward and leftward direction, and the pair of first tilt members and the pair of second tilt members are disposed in a center region of the housing in the rightward and leftward direction.

An adjustment device is provided for aiming two oppositely pivoted lamp elements. That device includes a single aim adjuster screw, a first connection connecting the adjuster screw to a first lamp element and a second connection connecting the adjuster screw to a second lamp element. One turns the adjuster screw to simultaneously pivot the first and second lamp elements in opposite directions and thereby aim the two lamp elements in a synchronous manner.

Reflector unit (1) comprising a single pieced reflector (2), said reflector (2) being obtained by way of a molding process, and a frame structure (3) for supporting the single pieced reflector (2), wherein the reflector (2) comprises at least two reflecting chambers (2a) for reflecting light from a light source (8), wherein the at least two chambers (2a) are being spaced from another, and wherein the reflector (2) is firmly and essentially non-adjustably connected to the frame structure (3) by at least two connecting means (4), wherein the reflector (2) is non-movable with regard to the frame structure (3) along the portions of the connecting means (4), wherein the frame structure (3) comprises at least one adjusting screw (5a, 5b) being connected with an engaging portion (7a, 7b) of the frame structure (3) and an engaging portion (6a, 6b) of the reflector (2), wherein the engaging portions (6a, 6b, 7a, 7b) are configured to allow rotational movement of the respective adjusting screw (5a, 5b), and wherein rotational movement of the at least one adjusting screw (5a, 5b) translates into linear movement of the respective engaging portions (6a and 7a, 6b and 7b) with respect to one another for adjusting the distance between the respective engaging portions (6a, 6b) of the reflector (2) and the respective engaging portion (7a, 7b) of the frame structure (3) and thus bending the reflector (2) with regard to the firm portions of the connecting means (4).

A supplementary light module for a headlamp of a vehicle, and in particular a cornering light module, a turning light module, or a fog light module. Such module can be accommodated in a housing of the headlamp, comprising a lamp and a reflector. The light generated by the lamp can be emitted in a propagation direction. A base body is provided, on which at least the lamp and the reflector are accommodated, and wherein the base body is securely accommodated in the headlamp housing by means of a pivot axle and by means of an adjustment unit for adjusting the supplementary light module about the pivot axle.

A motor vehicle lighting device including: a housing closed by a transparent outer lens; an electronic card inside the housing connected or configured to be connected to a light source, the electronic card including a locating tab. The housing includes at least one locating portion arranged with the locating tab so that the electronic card is located relative to the housing by the contact engagement of the locating portion and the locating tab.

A motor vehicle lighting device including: a housing and an outer lens; a light source support in the housing; an optical element; a bearing member fixed to the housing, the optical element being gripped between the light source support and the bearing member; and at least one elastic element gripped between the bearing member and the optical element and configured to be elastically deformable in a direction from the bearing member toward the optical element.

The present disclosure provides a vehicle lamp including: a main bracket pivotably supported to a lamp body; and a sub-bracket pivotably supported to the main bracket. A first optical unit is supported directly to the main bracket, and three second optical units are supported to the main bracket via the sub-bracket. An optical axis adjustment for the first optical unit and the three second optical units is collectively performed by pivoting of the main bracket, and an optical axis deviation between the first optical unit and the three second optical units is corrected by pivoting of the sub-bracket.