Disclosed are methods for forming a double-sided optical sheet, and a vehicle lamp assembly having the double-sided optical sheet integrated therein. A first optical pattern is imprinted on a first side of a material, and a second optical pattern is imprinted on a second side of the material, opposite the first side. The first and second optical patterns are thereby formed on opposing sides of the same sheet. When oriented adjacent a light source, the double-sided optical sheet homogenizes light emitted from the light source. For a light source having a plurality of lighting elements, the double-sided optical sheet is configured to blend light emitted from the plurality of lighting elements to form one homogenous beam of light output resulting from a single light-modifying member.

A lighting device includes lens which delimits the inner region of the lighting device and is configured so that light exits outwards from the inner region. The lighting device includes one or more light sources in the inner region to emit a first light radiation in a first wavelength range, the lens being non-transparent to the first light radiation. The inner region also includes one or more elements, each of which contains a photoluminescent phosphor, the element(s) being arranged to be illuminated by the first light radiation. The photoluminescent phosphor is configured to emit a second light radiation in a second wavelength range, based on the first light radiation illuminating the element(s), the second light radiation at least partly exiting through the lens which is transparent to at least a part of the second light radiation.

A lamp protection assembly includes a lamp assembly that includes a lens, a lamp housing, and one or more lighting elements located within the lamp housing. The one or more lighting elements being configured to emit light through the lens. The lamp protection assembly also includes an impact ring that is configured to wrap around the lens.

A lighting device for a motor vehicle, comprising a light source from which light is emitted during operation of the lighting device, a rod-shaped light guide which has a light entry surface on an end face for the light emitted from the light source and a light exit surface from which, during operation of the lighting device, the light which has entered through the light entry surface exits at least partially. The lighting device is set up to serve as a direction indicator, and wherein the lighting device comprises a controllable cover which is arranged at least partially in front of the light exit surface such that, during operation of the lighting device, at least a portion of the light exiting from the light exit surface enters an entry surface of the cover and exits from an exit surface of the cover.

Provided is a grill lighting device for a vehicle including a housing unit positioned on a vehicle body and having a shape whose one side is opened, a light source unit positioned on the housing unit and configured to emit light, a reflective unit provided in the housing unit and configured to reflect light emitted from the light source unit, and a screen unit positioned on the housing unit and configured to cover the opened portion of the housing unit and transmit the light reflected by the reflective unit to generate grill lighting.

A lighting device for a motor vehicle, wherein the lighting device comprises a printed circuit board having a plurality of light-emitting diodes arranged thereon, an optical disk and a reflector element, wherein the reflector element is arranged between the circuit board and the optical disk, wherein the reflector element has a plurality of segments into which the reflector element is divided, wherein each light-emitting diode is assigned a segment so that light emitted from the LEDs is reflected at the reflector element and passes through the optical disk.

A lamp for a vehicle includes a light source unit for generating light, a shield unit for selectively transmitting at least some of the light generated from the light source unit, and a lens unit for focusing the light that transmits trough the shield unit on a road surface. A main transmission light among the light that is transmitted through the shield unit forms a plurality of road surface patterns, and an auxiliary transmission light among the light that is transmitted through the shield unit is irradiated to one or more selected road surface pattern among the plurality of road surface patterns to increase brightness of the selected road surface pattern.

A lamp for a vehicle includes a light source unit for generating light, a shield unit for selectively transmitting at least some of the light generated from the light source unit, and a lens unit for focusing the light that transmits trough the shield unit on a road surface. A main transmission light among the light that is transmitted through the shield unit forms a plurality of road surface patterns, and an auxiliary transmission light among the light that is transmitted through the shield unit is irradiated to one or more selected road surface pattern among the plurality of road surface patterns to increase brightness of the selected road surface pattern.

A lighting module for three-dimensional suspension imaging, includes a micro lens array and a micro image-text element, wherein a transparent medium layer is arranged between the micro lens array and the micro image-text element; the micro image-text element includes a micro image-text array corresponding to the micro lens array; and the micro image-text element is arranged in such a way that light is irradiated from the micro image-text array to the micro lens array through the transparent medium layer and forms a three-dimensional suspension image. The lighting module is used in a vehicle lamp, a vehicle accessory device and a vehicle, and can realize an image having a three-dimensional, suspension and dynamic effect, which image has a good visual effect.

Disclosed are a communication device and method for a vehicle, the device including a housing, an external lens structure covering an open front region of the housing, an internal lens structure mounted in the housing and covered by the external lens structure, a liquid crystal section mounted on the internal lens structure, configured to become transparent or opaque based on whether or not power is applied thereto, and a bezel disposed behind the liquid crystal section, such that the bezel becomes visible from an exterior of the communication device upon the liquid crystal section being controlled to be transparent.