A vehicle lamp in which a millimeter wave radar is disposed on an outer surface side of an outer lens covering a lamp chamber. The vehicle lamp includes: a holding bracket configured to hold the millimeter wave radar; and a radar cover configured to cover the millimeter wave radar. The holding bracket is fixed to the outer lens in a state of holding the millimeter wave radar, and the radar cover is fixed to the holding bracket in a state of covering the millimeter wave radar.

A vehicle lamp including: a container-shaped lamp body whose front surface is opened; and a front cover assembled to a front opening of the lamp body and defines a lamp chamber inside. On a back wall of the lamp body, a plurality of beams having a substantially arc-shaped cross section and constituting a part of the back wall extend in a truss shape from an upper edge portion to a lower edge portion of the back wall.

A vehicle light is provided, including: a housing, a first lighting module, a second lighting module and a light guiding member. The housing defines a receiving space. The first lighting module includes at least one first lighting member. The second lighting module includes a light-permeable substrate and a plurality of second lighting members disposed on the light-permeable substrate. The light guiding member is located between the at least one first lighting member and the light-permeable substrate. The first lighting module and the second lighting module are disposed within the receiving space and at least partially overlapped with each other in a light emitting direction of the vehicle light, and at least a portion of a light emitted from the at least one first lighting member is projected out of the housing through the light-permeable substrate.

Cover lens (1), for a motor vehicle light, wherein the cover lens (1) has an inner surface (2), an outer surface (3) opposite the inner surface (2), a transparent body (4), an opaque body (5) and a coating (6), wherein the coating (6) has PU polyurethane, wherein the transparent body (4), the opaque body (5) and the coating (6) are produced in one continuous piece, preferably in an injection moulding process, in such a way that the outer surface (3) is only formed on the coating (6) and on the opaque body (5), wherein the coating (6), as seen from the outer surface (3) in the direction of the inner surface (2), completely covers the transparent body (4) and only partially covers the opaque body (5). Injection moulding process and injection mould (100) for producing a cover lens (1).

A system is provided. The system can include a lens. The lens can include a carbon nanotube layer. The carbon nanotube layer can be configured to thermally couple with a heating element.

A headlamp for vehicles has a housing containing a light source unit with numerous light sources, and an optical unit for generating a predefined light distribution. A cover lens covers a light-emitting aperture in the housing. A control unit is provided for the light sources. An anti-condensation means prevents condensation on a surface of the optical unit and/or the cover lens. The control unit contains a control program to operate the light source unit at an anti-condensation level higher than the normal level for generating the predefined light distribution. The difference between the anti-condensation level and the normal level is great enough that a relative humidity within the housing in an anti-condensation state is lower than in the normal state. Light sources in the light source unit that are not intended for generating the predefined light distribution are also switched on, in addition to those intended for such.

An illumination apparatus for a motor vehicle includes a housing which is covered by an outer cover glass and has a surface illumination function in order to illuminate a predefined region of the surface of the outer cover glass when viewed from above from the outside onto the outer cover glass. An illuminant is provided at least in sections at the edge of the outer cover glass, and the outer cover glass includes a translucent light-guiding layer into which the illuminant radiates light along the planar extent of the light-guiding layer during operation. The light-guiding layer transmits the irradiated light along the planar extent, and a light-deflecting device is provided in the predefined region of the outer cover glass in order to deflect transmitted light in the light-guiding layer such that it emerges via the outer cover glass.

The invention provides a lighting device for a vehicle for which a monitoring device and a light source may be disposed in a same space without being affected by heat and causing failure. The lighting device for the vehicle includes a housing accommodating the light source; and a lens portion covering the housing from an outside of the vehicle to be combined with the housing and forming a lamp chamber surrounded by a sealing portion, wherein the light source is disposed in the lamp chamber, and the monitoring device is disposed at an outside of the lamp chamber and at a position of a back surface of the lens portion.

The present invention includes a base which serves as a mounting part onto a vehicle, a light source unit, a translucent cover which covers a front surface side of the base so as to accommodate the light source unit inside and is mounted on the base to define a lamp body space, and an obstacle detection unit arranged at a horizontal side position of the light source unit on the lamp body space side of the translucent cover and configured to detect an obstacle by transmitting electromagnetic waves. The obstacle detection unit includes a housing and an obstacle detection device housed in the housing. The housing is fixed to the translucent cover and provided spaced away from the base.

A vehicle lamp comprises a housing including a rear wall and an annular wall located in front of and connected to the rear wall. A chamber between the annular wall and the rear wall includes a front end having an opening. A carrier seat protrudes from an inner surface of the annular wall into the chamber and includes a mounting face facing the chamber. The annular wall includes an assembling opening facing the mounting face. A circuit board disposed on the mounting face includes at least one light emitting element and at least one first mounting hole. An optical element is disposed in the chamber to guide light rays emitted by the at least one light emitting element. A front cover is coupled with the housing and substantially seals the opening. A vertical projection of the at least one first mounting hole is substantially located in the assembling opening.