A vehicular door mirror device is provided which includes an engagement claw provided on one of a lamp unit and a mirror housing being engaged with a latching part provided on the other of the lamp unit and the mirror housing, wherein the mirror housing includes a housing main body that has a mirror housing recess part and is pivotably supported by a base member, and a cover that has the slit formed therein and is mounted on the housing main body so as to cover the housing main body from a side opposite to an open direction of the mirror housing recess part, the cover being provided with a restriction part that restricts displacement of the engagement claw toward a direction in which the engagement claw disengages from the latching part. The lamp unit is thus prevented from detaching from the mirror housing even under an external impact.

Provided are a lamp apparatus of a vehicle and a control method thereof. The lamp apparatus includes: a first integrated lamp installed at either the front or rear of a vehicle and having a plurality of lamps, one or more of which being turned on according to a lighting mode; a second integrated lamp installed at a position different from the installation position of the first integrated lamp and having a plurality of lamps, one or more of which being turned on; a travel direction input unit that receives a travel direction; a driving signal input unit that receives driving signals for turning on and off the lamps; and a lamp control unit that receives the travel direction to set the lighting modes of the first and second integrated lamps, and drives one or more of the plurality of lamps included in each of them.

Provided are a lamp apparatus of a vehicle and a control method thereof. The lamp apparatus includes: a first integrated lamp installed at either the front or rear of a vehicle and having a plurality of lamps, one or more of which being turned on according to a lighting mode; a second integrated lamp installed at a position different from the installation position of the first integrated lamp and having a plurality of lamps, one or more of which being turned on; a travel direction input unit that receives a travel direction; a driving signal input unit that receives driving signals for turning on and off the lamps; and a lamp control unit that receives the travel direction to set the lighting modes of the first and second integrated lamps, and drives one or more of the plurality of lamps included in each of them.

A standoff apparatus is provided for facilitating the mounting or retrofitting a vehicle accessory or, in a preferred embodiment, a single studded combination marker/turn signal lamp to a vehicle fender and its purpose to provide additional lighting to alert other motorist or pedestrian of the vehicles presence and the operator's intension. There is an upper standoff body, a common selective ring shim, a lower adaptor, a common washer and a shoulder nut provided to secure the lamp and mount assembly. Secondary securing hardware is also provided which include: a common socket head bolt, a second common selective shim, a common rubber laminated washer and a common locking nut.

A standoff apparatus is provided for facilitating the mounting or retrofitting a vehicle accessory or, in a preferred embodiment, a single studded combination marker/turn signal lamp to a vehicle fender and its purpose to provide additional lighting to alert other motorist or pedestrian of the vehicles presence and the operator's intension. There is an upper standoff body, a common selective ring shim, a lower adaptor, a common washer and a shoulder nut provided to secure the lamp and mount assembly. Secondary securing hardware is also provided which include: a common socket head bolt, a second common selective shim, a common rubber laminated washer and a common locking nut.

An adaptor for connecting an LED lighting unit to a vehicle CAN-bus. The adaptor has a connector connectable to a corresponding connector on a vehicle, to receive a lighting current from the CAN-bus of the vehicle. A wireless power transmitter of the adaptor wirelessly transmits power to the LED lighting unit at a first level, typically suited to LED operation. The adaptor further includes one or more resistors connected between the connector and transmitter and arranged to draw power from the connector at a second power level higher than the first power level, which second power level is suitably equivalent to that for halogen or filament lighting.

An adaptor for connecting an LED lighting unit to a vehicle CAN-bus. The adaptor has a connector connectable to a corresponding connector on a vehicle, to receive a lighting current from the CAN-bus of the vehicle. A wireless power transmitter of the adaptor wirelessly transmits power to the LED lighting unit at a first level, typically suited to LED operation. The adaptor further includes one or more resistors connected between the connector and transmitter and arranged to draw power from the connector at a second power level higher than the first power level, which second power level is suitably equivalent to that for halogen or filament lighting.

An automated driving enabled vehicle includes a travel controller, an automated driving indicator lamp, and a lamp controller. The travel controller controls the travel of the vehicle by automated driving in a normal movement mode and in an automatic parking mode. The normal movement mode includes allowing the vehicle to travel, and the automatic parking mode includes parking the vehicle by the automated driving in a parking lot. The lamp controller controls a lighting state of the automated driving indicator lamp during the execution of the automated driving to a first lighting state in the normal movement mode, and to a second lighting state different from the first lighting state in the automatic parking mode.

An automated driving enabled vehicle includes a travel controller, an automated driving indicator lamp, and a lamp controller. The travel controller controls the travel of the vehicle by automated driving in a normal movement mode and in an automatic parking mode. The normal movement mode includes allowing the vehicle to travel, and the automatic parking mode includes parking the vehicle by the automated driving in a parking lot. The lamp controller controls a lighting state of the automated driving indicator lamp during the execution of the automated driving to a first lighting state in the normal movement mode, and to a second lighting state different from the first lighting state in the automatic parking mode.

An input lighting signal optimization device includes a multiplex circuit configured to select and output a first LED lamp lighting signal or a second LED lamp lighting signal, and a MICOM configured to output a driving signal for driving a first LED lamp or a second LED lamp after receiving an output signal of the multiplex circuit through one input port and detecting a wake-up signal included in the output signal of the multiplex circuit to switch to an activation mode.