A lighting system includes a plurality of lights, and a control mechanism configured to automatically adjust at least a first light of the plurality of lights based on one of a desired position and a desired direction. Each light of the plurality of lights is adjustable to project a light beam.

An external display lighting apparatus of a vehicle, may include a light source emitting light; a scanning mirror reflecting the light emitted from the light source to change a traveling path of the light and configured to rotate by a predetermined angle to scan an image of reflected light; and a reflector provided such that the light reflected by the scanning mirror is incident thereupon and the incident light is reflected off a road surface, the reflector being configured to be rotatable such that the light is projected onto the road surface around the vehicle.

An autonomous search light system for being mounted to an aircraft includes a search light for emitting an adjustable light output; an RF receiver with at least two RF antennas for receiving RF signals emitted by an RF transmitter; and a controller for determining a position of the RF transmitter in relation to the search light from the received RF signals and for controlling the search light based on the determined position of the RF transmitter.

A vehicle lighting system is provided herein. A spotlight is coupled to a vehicle and is configured to project light in a target direction. A controller is configured to wirelessly send command signals to the spotlight. A user-input device is in communication with the controller and is provided on a steering wheel of the vehicle. The command signals are based on user-input and control at least one of an aim direction and a light activation of the spotlight.

A method for displaying charging stations for vehicles, wherein the vehicle comprises a navigation system for determining the current position of the vehicle, the location of the charging stations with which a vehicle battery of the vehicle may be charged being stored in said navigation system, and at least one headlight, comprises determining the current position of the vehicle and comparing the current position of the vehicle to the location of at least one of the stored charging stations by the navigation system and if the current position of the vehicle is within a selectable distance from the location of a charging station, activating the headlight with a pattern that may be selected.

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.

A vehicle lighting system is provided herein. A spotlight is coupled to a vehicle and is configured to project light in a target direction. A controller is configured to wirelessly send command signals to the spotlight. A user-input device is in communication with the controller and is provided on a steering wheel of the vehicle. The command signals are based on user-input and control at least one of an aim direction and a light activation of the spotlight.

A vehicle lighting system is provided herein. A spotlight is coupled to a vehicle and is configured to project light in a target direction. A controller is configured to wirelessly send command signals to the spotlight. A user-input device is in communication with the controller and is provided on a steering wheel of the vehicle. The command signals are based on user-input and control at least one of an aim direction and a light activation of the spotlight.

A spotlight apparatus is provided have an illumination element rotationally and pivotally mounted to a pedestal. A vertical control motor urges the illumination housing up and down. A lateral control motor urges the illumination element left or right. A joystick input provides manual directional control of the vertical motor and lateral motor. A MEMS gyroscope or similar microelectronic controller provides an automated control input that, when activated, provides a continuous control signal for providing vertical and lateral motor control based upon a target set point selected by the user.

An illumination apparatus that illuminates an illumination zone having a first direction and a second direction crossing the first direction is provided with a light source to emit a coherent light beam, and a diffraction optical device to diffract the coherent light beam incident from the light source. The diffraction optical device diffracts the incident coherent light beam so that a width of the illumination zone in the second direction gradually becomes wider along the first direction of the illumination zone from a nearer side to the diffraction optical device.