The invention is related to an automotive lighting device (10) comprising a light source (1) configured to emit light in a light direction (dl), a sensor (2) and a cover (3). The sensor (2) is configured to acquire information outside the lighting device by emitting a wave in a sensor direction (d2), the wavelength of the wave being comprised between 1 mm and 1 cm. The cover (3) comprises a first portion (31) located in the light direction and a second portion (32) located in the sensor direction, the second portion (32) comprising a sensor region (33) having a refractive index and a thickness which is comprised between 0.8 and 1.2 times an ideal thickness, the ideal thickness being equal to a natural number multiplied by the wavelength and divided by two times the refractive index.

The invention relates to a light element of a vehicle with at least one light source configured to emit light rays, a reflective layer. With a pattern made wholly or partly in the reflective layer. The light element further including an optical element configured to project the light rays from the at least one light source towards the reflective layer. With a dark layer extending along the optical element on the side opposite the reflective layer.

A vehicle lamp module and a vehicle including the vehicle lamp module are provided. The vehicle lamp module includes a beam pattern forming part to form a beam pattern of light irradiated externally from a vehicle, a sensor part provided at one side of the beam pattern forming part to sense an external region including the beam pattern, a driving part coupled to one side of the sensor part to provide a driving force for rotating the sensor part to change the external region that the sensor part faces, and a connection part interposed between the beam pattern forming part and the sensor part to selectively connect or disconnect the beam pattern forming part and the sensor part with or from each other.

A lamp device includes: a lamp unit; a radar unit having an antenna; and a shielding member which covers at least a part of the front surface of the radar unit where the antenna is provided and which is made of a foamed resin.

A motor vehicle includes an environment illuminating device for emitting light toward the ground in the environment of the motor vehicle. The environment illuminating device includes one or more luminous modules, each of which is configured to generate a light distribution on the ground. A respective luminous module includes an image generator configured to generate light radiation from light from an illuminant, the light radiation containing two-dimensional image information concerning, firstly, a symbol representation and, secondly, a light pattern and/or a homogeneous area with a substantially constant luminance. Furthermore, the respective luminous module includes an optical device, on which the light radiation from the image generator is incident.

Provided is a vehicle lamp unit that enables a user to perceive a detection range of a sensor. A vehicle lamp unit 1 includes: a sensor 4 mounted at a lower part of a vehicle 90; and an irradiation device 30 configured to irradiate a vehicle outer plate 95 present at a position corresponding to a detection range of the sensor 4.

A leveling apparatus for a vehicle headlamp includes: a housing disposed at a front side of a vehicle; a light source module disposed in the housing to emit light; a tilting sensor disposed in the housing to detect an inclination degree of a road; a tilting means to tilt the light source module and the tilting sensor together; and a controller. The controller receives a signal detected by the tilting sensor and controls the tilting means based on the inclination degree of the road to adjust a light emission angle of the light source module. In addition, the tilting sensor operates until a sensed output of the tilting sensor reaches a normal range.

A mirror reflective element sub-assembly for an exterior rearview mirror assembly of a vehicle includes a mirror reflective element, a heater pad, a mirror back plate, and a blind spot indicator module attached at a rear side of the back plate. The heater pad is adhered at the rear of the reflective element with a light transmitting aperture of the heater pad juxtaposed with a light transmitting aperture of the mirror reflector of the reflective element. The heater pad is adhered at the mirror back plate with its light transmitting aperture juxtaposed with a light transmitting aperture of the mirror back plate. Light emitted by the blind spot indicator module passes through a light-transmitting aperture of the mirror reflector to provide an illuminated icon to a driver of the vehicle when a blind spot detection system of the vehicle detects the presence of another vehicle in an adjacent lane.

A lighting body for a vehicle includes a housing, an outer lens configured to form a lamp chamber between the housing and the outer lens, a millimeter wave radar disposed outside the lamp chamber and transmits millimeter waves toward a side outward of the vehicle, and a light source disposed in the lamp chamber and emits light toward the side outward of the vehicle through the outer lens, the millimeter wave radar being held in the housing in a state the millimeter wave radar is combined with the housing from an inward side of the vehicle, a first functional membrane allows penetration of the millimeter waves and allows penetration and reflection of the light being formed on the outer lens, and a second functional membrane allows penetration of the millimeter waves and allows at least reflection of the light reflected by the first functional membrane being formed on the housing.

Disclosed is a device for opening/closing an opening element of a motor vehicle by detecting movement of a users limb, the device including an approach and/or contact detection sensor including a single electrode and an analyzer for analyzing the variations in capacitance of the electrode, and an opening element opening/closing control unit. The device also includes: a sealed housing including first and second metal surfaces; and a unit for detecting a predetermined form of the variations of the electrode, exhibiting a succession of a predetermined number of peaks of predetermined amplitude within a predetermined period; the first and second surface being separate, and the electrode being located outside the sealed housing, in such a way that the electrode is coupled electrically to the at least one first surface and to the at least one second surface so as to create at least two approach and/or contact detection areas.