There is provided a lighting device arranged to produce a controllable light beam for illuminating a scene. The device comprises an addressable spatial light modulator arranged to provide a selectable phase delay distribution to a beam of incident light. The device further comprises Fourier optics arranged to receive phase-modulated light from the spatial light modulator and form a light distribution. The device further comprises projection optics arranged to project the light distribution to form a pattern of illumination as said controllable light beam.

An adaptive lighting system of an off-road utility vehicle includes an illumination device controllable with respect to its emission characteristic or light intensity, and a control unit in communication with the illumination device. The control unit is configured to adapt the emission characteristic or light intensity level by controlling the illumination device based upon a determined gaze direction of a vehicle operator, an identified extraneous light effects, a determined relative position of an external off-road utility vehicle, or cartographic location information.

A intelligent headlight system for a bicycle according to an embodiment of the present invention comprises: a bicycle body; a portable terminal which may be carried by a rider of the bicycle body and has a GPS module, for detecting the location information of the bicycle body, so as to measure the running speed on the basis of the location information of the bicycle body; and a headlight apparatus which is disposed on the bicycle body so as to cast light on the scene ahead of the bicycle body, is communicatably connected to the portable terminal so as to receive the running speed of the bicycle body, and is formed such that irradiation patterns may vary in accordance with the running speed of the bicycle body.

A control unit of an optical axis control device for a headlight calculates a first vehicle angle () and a second vehicle angle () at different timings in traveling of a vehicle, and calculates a third vehicle angle (s) at which a difference between acceleration signals in a front-rear direction (X) is zero. The control unit calculates a representative value (S) based on a distribution of a plurality of third vehicle angles (s), and generates a signal for operating an optical axis of the headlight based on the representative value (S).

A method for controlling the orientation of a light beam for a motor vehicle is described comprising the steps of i) adjusting the orientation of a light beam arranged at the front relative to a normal forward moving direction of the motor vehicle; ii) acquiring a map of a path followed by said motor vehicle; iii) acquiring a current position of the motor vehicle along the path; and iv) defining a point of the path to which to orient the light beam, based on the map and on the current position; and v) rotating the light beam relative to the motor vehicle so as to light the point before the motor vehicle reaches the point.

A vehicle headlamp system includes a vehicle supported power and control system including a data bus. A sensor module can be connected to the data bus to provide information related to environmental conditions or information relating to presence and position of other vehicles and pedestrians. A separate headlamp controller can be connected to the vehicle supported power and control system and the sensor module through the bus. The headlamp controller can include an image frame buffer that can refresh held images at greater than 30 Hz speed. An active LED pixel array can be connected to the headlamp controller to project light according to a pattern and intensity defined by the image held in the image frame buffer and a standby image buffer can be connected to the image frame buffer to hold a default image.

A method for adjusting vehicle lighting when driving through a building site involves adjusting a light pattern cast by at least one vehicle headlight into an environment from a top light field, referred to as high beam, and a bottom light field, referred to as low beam, upon recognizing that a building site is being driven through by changing a light intensity with which the light pattern is generated. The light intensity at which the low beam is emitted is increased to a determined value when driving through the building site.

Provided herein is a headlamp assembly comprising a housing that encloses: a sensor that acquires data associated with a surrounding environment; a light source that illuminates a field of view comprising a portion of the surrounding environment; and one or more processors that analyze the acquired data and determine a direction, field of view, power, or an intensity of the illumination of the portion based on the analyzed data.

Vehicle lamp controllers, methods for controlling vehicle lamps and vehicle lamp systems including the lamp controller and the lamps can be configured to detect whether a traveling road is a straight road or a curved road. When the traveling road is the curved road, the lamp system can direct light distribution patters from an initially light distribution angle along the traveling road with reference to a first threshold. When the traveling road is the straight road, the lamp system can direct light distribution patters from the initially light distribution angle along the traveling road with reference to a second threshold, which is larger than the first threshold. The second threshold can be changed so as to maintain preferable light distribution patterns. Thus, the present invention can provide the vehicle lamp controllers, the controlling methods for the vehicle lamps and the vehicle lamp system to form the preferable light distribution patterns.

A remotely controllable headlight assembly for use on a vehicle, the assembly comprising a circuit board including a plurality of LEDs including at least a first low beam LED, a first high beam LED and at least one additional LED, optic elements supported adjacent the LEDs on the circuit board, a processor and a remote communication module coupled to the processor, the remote communication module configured to receive commands from a wireless device, wherein the commands instruct the processor to illuminate the at least one additional LED, wherein the processor controls the at least one additional LED based on the received wireless commands.