An LED light bar is provided, comprising an LED light bar body, a cover, and a light shut-off switch. The cover has a closing surface portion and a rear surface portion and is connected to the LED light bar body through hinges at the two side portions for closing and opening the first LED lights on the front portion, and the cover has at least two stable deploying positions including a closing position and an opening position. The light shut-off switch is provided on the first portion of the LED light bar body for turning off the first LED lights while the cover is in the closing position. The LED light bar may further comprise second LED lights disposed on the closing surface portion of the cover, and the light shut-off switch is further configured for turning off the second LED lights while the cover is in the closing position.

A luminous motor-vehicle device. The luminous device includes: a segmenting part including a plurality of through-cavities; a plurality of light sources upstream of the segmenting part; a mask that blocks at least one through-cavity of the segmenting part, said mask being able to be partially passed through by light. The luminous device is arranged so that each through-cavity directly or indirectly receives light from at least one separate light source.

The invention relates to a component group for a vehicle body, having a headlamp housing, which has at least one connecting portion integrally formed in one piece for connection to an adjoining body part, and a predetermined breaking point for separation of the connecting portion from a neighboring portion. To minimize both the repair costs in the event of a collision at low speed in the region of the headlamp and also the costs for production and assembly, it is provided according to the invention that the neighboring portion has connecting structures for connection to a joining part with which the connecting portion is replaceable after its separation.

A light bar for a motor vehicle has a plurality of lights mounted to an elongated support member is rotatably connected to opposing end walls of a rectangular frame. An offset cam is connected to the support member and moved by an actuating mechanism between a first and second position which cause the support member and lights to rotate about an axis to corresponding first and second positions. When the support frame and lights are in a first position they are shielded by and substantially enclosed by the sides and ends of the rectangular frame, and when in a second position the lights extend above and generally parallel to the rectangular frame to shine above and forward of the rectangular frame. A power switch energizes the actuating mechanism to move the lights and support member between the first and second positions.

A spoiler includes a lower shell, a bracket, a plurality of optical sensors, a CHMSL (center high mounted stop lamp) and an upper shell. The lower shell extends substantially a width of a vehicle roof. The bracket is fixed to the lower shell. The optical sensors are fixed to the bracket. The CHMSL is fixed to one of the lower shell and the bracket. The upper shell is disposed over and fixed to the lower shell. The upper shell has a plurality of sensor apertures aligned with the sensors and a CHMSL aperture aligned with the CHMSL.

A selectively orientable headlight guard is disclosed for a vehicle having a headlight assembly. The headlight assembly includes a headlight and a plurality of attachment locations around the headlight. The headlight guard has a cage configured to overlie and protect the headlight. Attachment features on the guard are configured to allow the guard to be attached to the headlight assembly in a first orientation relative to the headlight or alternately in a second orientation different from the first orientation relative to the headlight. The attachment features may be associated groups of openings, arced slots, or a separate attachment ring or attachment lugs. The headlight guard can be attached such that the cage is oriented in at least two different directions relative to the headlight to alter the aesthetics of the headlight and headlight guard.

A light bar for a motor vehicle has a plurality of lights mounted to an elongated support member is rotatably connected to opposing end walls of a rectangular frame. An offset cam is connected to the support member and moved by an actuating mechanism between a first and second position which cause the support member and lights to rotate about an axis to corresponding first and second positions. When the support frame and lights are in a first position they are shielded by and substantially enclosed by the sides and ends of the rectangular frame, and when in a second position the lights extend above and generally parallel to the rectangular frame to shine above and forward of the rectangular frame. A power switch energizes the actuating mechanism to move the lights and support member between the first and second positions.

A water heating device (5) includes an infrared light emitting diode (50) configured to emit a light beam in a wavelength band including a wavelength of 1.4 m or more. With the application of an infrared light beam emitted from the infrared light emitting diode (50) toward an applied body (e.g., a front cover (11)), at least a part of the infrared light beam is absorbed into water attached to the applied body to heat the water.

A lighting and/or signaling device for a motor vehicle, including an internal chamber housing an optical system and at least one element made of polymer material having a surface directed toward the interior of the chamber, wherein the surface directed toward the interior of the chamber is provided with a sealing layer forming a barrier to the ingress of water molecules to the chamber. The method for manufacturing such a device is also a subject of the invention.

A computing device in a vehicle can be programmed to activate a self-cleaning glass surface by irradiating the self-cleaning glass surface with LED ultraviolet radiation based on a determined energy of external ultraviolet radiation and a schedule. The computing device can activate a self-cleaning glass surface by irradiating the self-cleaning glass surface with LED ultraviolet radiation based on determining an optical state of the self-cleaning glass.