The present invention relates to an aerial lift (1), which includes: a lower portion (2, 3) provided with members (7) for connecting to the ground (S); a lifting structure (4); a platform (5) supported by the lifting structure (4); and a lighting system (20) including at least one lighting device (21, 22, 23) arranged on the lower portion (2, 3) or on the platform (5), other than a driving light. The aerial lift (1) is characterised in that the lighting device (21, 22, 23) selectively generates coloured light beams, the colour of which are selected among at least two distinct colours, respectively corresponding to an emergency stop situation (C2) of the aerial lift (1) and an accident at height situation (C4) of the aerial lift (1). The invention also relates to a method for implementing such an aerial lift (1).

Systems, devices, and methods are disclosed in which one or more light sources, a detector, a processor and a controller are configured such that light from the one or more light sources can provide illumination or projections that can reduce accidents while the vehicle is in motion and when parked and may also provide information and illumination to the driver and vehicle occupants when entering or exiting the vehicle. These systems may, for example, provide spot illumination to moving objects or pedestrians on the road surface, with the spot illumination following the moving object. Alternatively or in addition these systems may project images on the ground, for example to communicate information to occupants of the vehicle, to occupants of another vehicle, or to pedestrians.

A lighting system of a vehicle is provided herein and includes an external lighting device, one or more sensors configured to detect an object approaching the vehicle, and a controller configured to identify the object and assess a threat level thereof based on input from the one or more sensors. If the controller determines that the object is high threat, the controller operates the external lighting device to produce an illumination sequence in the direction of the object.

A helicopter search light comprises a housing with a mounting portion, which is configured to be mounted to a helicopter, a light source support arranged within the housing and at least one optical system. Each optical system includes a group of at least two light sources with different light emission characteristics, which are arranged on the light source support; and a reflector, which is movable between at least two discrete positions, each position being associated with one of the at least two light sources, with the reflector in each position only reflecting light emitted by the associated light source. The helicopter search light further comprises at least one actuator, which is configured for selectively moving the reflector between the at least two discrete positions.

A search and landing light system for a vehicle includes a hemispherical housing adapted to couple to the vehicle and a plurality of light emitting elements coupled to the hemispherical housing and arranged about a surface of the hemispherical housing. Each of the plurality of light emitting elements is configured to output a light beam. The search and landing light system includes a controller, having a processor in communication with each of the plurality of light emitting elements and configured to output one or more control signals to selectively activate at least one of the plurality of light emitting elements to output the light beam at a selected position relative to the vehicle.

A disclosed light activation system includes a movable lighting element movable to adjust a direction of light, an actuator for moving the movable lighting element, a driver detection device and a controller configured to command operation of the actuator for moving the movable lighting element based on a detected direction of sight of the driver. A disclosed method of operating a vehicle lighting system includes monitoring a direction that a driver of a motor vehicle is looking, determining a lighting element within a region corresponding with the direction the driver is looking, and actuating a lighting element within the region based in response to the determined direction that the driver is looking and in response to a secondary condition being fulfilled.

Disclosed herein are embodiments of a light mount assembly for use with a vehicle, a vehicle with a light mount assembly, and methods for using a light mount assembly on a vehicle. The vehicle can have a foldable windshield with a raised position and a lowered position, and the light mount assembly can have a light with a light mount and a support defining a track for the light. The support can be mounted on the vehicle using pre-existing holes in the vehicle such that a base portion of the light mount is spaced from an outer surface of the vehicle. The light can be repositioned and reoriented relative to the vehicle and/or the support. The light can be moved from a position above a top surface of the vehicle to another position to a side of the vehicle in order to prevent the light from interfering with the foldable windshield when the windshield is moved to the lowered position.

A control device for a vehicle headlight includes a motion information acquisition part that acquires information of a motion of at least a part of a driver in the vehicle, an attribute decision part that determines attribute of the driver based on the information acquired by the motion information acquisition part, and a light distribution controller that controls a light distribution of the vehicle headlight based on the attribute determined by the attribute decision part.

An image recognition-based intelligent alarm lamp includes a lighting device, a rotating mechanism, a high-definition camera, a DC motor, an LED alarm lamp and an embedded processing device. The lighting device is mounted onto the rotating mechanism and rotated with the rotating mechanism to illuminate an object from different directions; the DC motor is coupled to the rotating mechanism for driving the rotation of the rotating mechanism; the high-definition camera is provided for capturing a video stream around a police car; the embedded processing device is provided for receiving an image around the police car, determining whether or not to send a rotation drive signal to the DC motor based on the image around the police car, and determining a flashing method of the LED alarm lamp based on the image around the police car. This invention improves the level of recognizing a criminal around the police car.

An illumination system for a vehicle includes an illumination device securable to the vehicle and configured to provide illumination of the exterior of the vehicle and a surrounding environment in response to a signal; at least one lighting array in communication with the illumination device configured to illuminate the exterior of the vehicle and the surrounding environment based on the signal received by the illumination device; and a lift system coupled to the illumination device and configured to enable vertical, lateral, and rotational movement of the illumination device relative to the vehicle.