Abstract: A vehicular lamp includes: a lens body including front and rear surfaces; and a light source provided at the rear of the lens body and emitting light rays that enter through the rear surface and are outputted through the front surface. The front surface includes a plurality of lens cuts that control a diffusion angle of light rays, at least one lens cut includes a first region and a second region, the lens body includes a reflection surface that internally reflects a portion of light rays that are to be outputted through the second region, the first region is a surface that controls the diffusion angle of direct light rays that are to be outputted through the first region, and the second region is a surface that controls the diffusion angle of the reflected light rays from the reflection surface which are to be outputted through the second region.

Abstract: A vehicular lamp includes a light guide body, including first and second light guide portions, disposed side by side, a light incident portion, a first reflective surface, and a second reflective surface. The first and second reflective surfaces are disposed between the light incident portion and the proximal end portion of the first or second light guide portion, respectively. Light reflected by the first reflective surface is guided in the first light guide portion while being repeatedly reflected between the front and back surfaces thereof, and light reflected by the second reflective surface is guided in the second light guide portion while being repeatedly reflected between the front and back surfaces thereof. The back surfaces of the light guide portions include a plurality of first or second structures, respectively, configured to cause the light guided in the first or second light guide portion to exit from the front surface thereof.

Abstract: Provided is a light source apparatus detecting, even when a minute crack occurs in a fluorescent material plate, such a defect to take a safety measure. The light source apparatus includes a laser light source emitting laser light, a fluorescent material plate including a laser light irradiation region and being capable of emitting light by irradiating the laser light irradiation region with laser light to convert the light in wavelength, a light scanning mechanism capable of scanning the laser light irradiation region with the laser light, and a transparent conductive film pattern disposed on the fluorescent material plate in the laser light irradiation region and including a parallel wiring portion in a first direction. The interval between adjacent portions of the transparent conductive film pattern in a second direction intersecting the first direction changes along the second direction depending on a portion which is located within the pattern.

Abstract: The invention describes a light converting device comprising: a light converter for converting laser light to converted light, the light converter comprising a light entrance surface, a bonding surface opposite to the light entrance surface and a side surface; a substrate carrying the light converter and comprising a reflective structure for reflecting laser light and converted light; a reflective side structure optically coupled to the side surface of the light converter and for reflecting laser light and converted light; a cooling element attached to the reflective side structure for cooling the reflective side structure, wherein the cooling element comprises material which is transparent in the wavelength range of the laser light and the wavelength range of the converted light, and wherein the cooling element is arranged in an optical path of the laser light, an optical path of reflected laser light and an optical path of the converted light, and a decoupling structure between the light converter and th

Abstract: An optical system including two optical modules, each optical module including at least one light source, one primary optical element configured to form an elementary beam dependent on the rays emitted by the one or more light sources, and one secondary optical element for projecting the elementary beam. The primary optical elements of the optical modules form one and the same part.

Abstract: A light source apparatus includes: a laser light source; a fluorescent material plate including a laser beam irradiation region and being capable of emitting light generated by irradiating the laser beam irradiation region with a laser beam; a light scanning mechanism capable of scanning the laser beam irradiation region with the laser beam; a first transparent conductive film pattern disposed on the fluorescent material plate in the laser beam irradiation region; a second transparent conductive film pattern disposed on the fluorescent material plate outside the laser beam irradiation region and connected to the first transparent conductive film pattern to constitute a continuous series connection wiring; and an electric circuit electrically connected to the second transparent conductive film pattern, detect a change in a resistance value of the series connection wiring, and function to stop the driving of the laser light source when the resistance value falls outside a predetermined range.

Abstract: A vehicle headlight device attached to a part of a vehicle and configured to apply illumination light to a road surface on which the vehicle runs comprises: a light source device configured to Generate the illumination light; an optical unit disposed on a light axis of the light source device and configured to project the illumination light from the light source device so as to form a desired light distribution; and a polarization direction conversion device disposed in a part of a light path between the light source device and the optical unit and being able to control the illumination light from the light source device with inclusion of conversion of a polarization direction thereof for each irradiation region in accordance with a state of a position irradiated with the illumination light on the road surface.

Abstract: The present invention relates to improved light bar cover for LED light bars. The presently disclosed light bar covers may cover the full circumference and length of a light bar and may include a multi-functional tool for easing the installation or removal. While installed, the light bar cover protects the light bar from various damages such as debris or the elements. The multi-function tool may be used to assist in the removal and installation of the cover when mounted in hard to access location. In various embodiments the multi-function tool may be used to deploy the cover, provide rigidity to the cover, and/or actuate a fastener for the cover.

Abstract: Simplified LED chip architectures or chip builds are disclosed that can result in simpler manufacturing processes using fewer steps. The LED structure can have fewer layers than conventional LED chips with the layers arranged in different ways for efficient fabrication and operation. The LED chips can comprise an active LED structure. A dielectric reflective layer is included adjacent to one of the oppositely doped layers. A metal reflective layer is on the dielectric reflective layer, wherein the dielectric and metal reflective layers extend beyond the edge of said active region. By extending the dielectric layer, the LED chips can emit with more efficiency by reflecting more LED light to emit in the desired direction. By extending the metal reflective layer beyond the edge of the active region, the metal reflective layer can serve as a current spreading layer and barrier, in addition to reflecting LED light to emit in the desired direction.

Abstract: Described examples include a projection device having a light source. The projection device also has a spatial light modulator arranged to receive light from the light source and provide modulated light. The projection device also has projection optics arranged to receive and project the modulated light. The projection device also has a field splitting element between the spatial light modulator and the projection optics, a first portion of the field splitting element being structured to pass at least a first portion of the modulated light to the projection optics for projection at a first focal length, and a second portion of the field splitting element being structured to pass at least a second portion of the modulated light to the projection optics for projection at a second focal length.

Abstract: A reflector is configured such that an opening is formed in a portion located on an extension line of the optical path of laser light from a laser light emitting element to a light emitter. In addition, a reflective surface of the reflector includes a first reflective area located at the front side of the opening and a second reflective area located at the rear side of the opening, and the first reflective area is displaced to the light emitter side with respect to the second reflective area. Thereby, compared with a case where a first reflective area is formed in a curved shape obtained by extending the second reflective area as in the related art, a large solid angle based on the light emission center of the light emitter is secured, and a luminous flux utilization ratio with respect to the light emitted from the light emitter is increased.

Abstract: A purpose of the invention is to provide a tractor that includes a rear lamp with high designability. A tractor of the present invention includes a rear lamp, a cabin, a lamp housing that is provided along a longitudinal direction of a rear pillar of the cabin, and a light source that is housed in the lamp housing, wherein the rear lamp is provided from a vicinity of one end to a vicinity of the other end of the rear pillar in the longitudinal direction.

Abstract: The invention relates to an interior trim element for a motor vehicle which comprises: a translucent carrier component with a front side and a rear side, a translucent cover material on the front side of the carrier component and a light source on the rear side of the carrier component, wherein the translucent cover material has a Shore A hardness in the range between 60 and 80, wherein the interior trim element comprises at least one surface of a storage tray or storage compartment of the motor vehicle which is visible to passengers of the motor vehicle, and wherein the light source illuminates the visible surface of the storage tray or storage compartment.

Abstract: A molded part can comprise a backing and a decorative layer. The decorative layer has a back side facing the backing and a visible front side. A transparent or translucent layer is provided on the front side of the decorative layer, with a light source being provided about the molded part. An optical fiber can be connected to the light source on the visible, front side of the decorative layer. The optical fiber(s) can run parallel to the front side of the decorative layer in one or more grooves in at least some sections on the front side of the decorative layer. The optical fiber(s) may be formed by a transparent or translucent filler material introduced into the groove(s), the refractive index of the filler material being greater than the refractive index of the high-gloss layer. Implementations further include a method of making the same.

Abstract: A light assembly for a motor vehicle according to an exemplary aspect of the present disclosure includes, among other things, a light source and a lens arrangement. The lens arrangement includes a collimator having an inner surface adjacent the light source and a flat, planar outer surface. This disclosure also relates to a motor vehicle including the subject light assembly, and a method of using the light assembly.

Abstract: The present invention discloses a light emitting device. The device may include a printed circuit board, a reflective layer formed on the printed circuit board, a light guide layer formed on the reflective layer, and one or more light sources provided on one or more sides of the light guide layer to allow light to enter the light guide layer from the one or more sides, wherein the light guide layer may be bent with one or more curves, and wherein one surface of the light guide layer may be formed with a plurality of microstructures so as to achieve the best lighting effect and to increase luminance uniformity.

Abstract: A headlight is provided with a light source unit, an aiming mechanism which can adjust aiming with respect to the light source, a headlight cover which is arranged in front of the light source, and a housing which, by fitting with the headlight cover, covers the light source unit and the aiming mechanism. Inside of the headlight, and between the headlight cover and the light source unit, a stay is provided for arranging the light source unit and the aiming mechanism on the headlight cover.

Abstract: A vehicle front headlight device includes a light source, a rotating mirror that is configured by disposing a first mirror body and a second mirror body around a circumferential direction of a shaft, that is rotationally driven about the shaft and rotates while reflecting light emitted by the light source, a lens that transmits light reflected by the rotating mirror so as to illuminate the light forward, and a controller for controlling rotational drive of the rotating mirror. A first illuminated region of light that is reflected by the first mirror body and that is radiated forward through the lens, and a second illuminated region of light that is reflected by the second mirror body and that is radiated forward through the lens, are offset from each other in a vehicle width direction or in a vehicle vertical direction.

Abstract: A lighting tool for a vehicle includes a light source device, and a first projection module and a second projection module each configured to radiate light radiated from the light source device toward a front of the vehicle as a light distribution pattern, wherein the light source device radiates light toward each of the first projection module and the second projection module, the first projection module and the second projection module each include a liquid crystal element that modulates the light radiated from the light source device to form an image light, and a projection optical system that radiates the image light forward as the light distribution pattern, and the light distribution pattern of the first projection module and the light distribution pattern of the second projection module overlap with each other over an entire projection range in a direction of a first axis.

Abstract: A light source for a vehicle includes a first substrate, a second substrate, a first light emitting element, and a second light emitting element. The second substrate is spaced apart from the first substrate. The first light emitting element is coupled to a surface of the first substrate that faces the second substrate. The first light emitting element is configured to emit light through the second substrate. The second light emitting element is coupled to a surface of the second substrate that faces the first substrate. The second light emitting element is configured to emit light through the first substrate.

Abstract: The invention relates to a light module for a motor vehicle comprising an optical element intended to generate a beam with a partly oblique cut-off, the optical element comprising at least one optical portion having an optical axis, and at least one light source configured to cooperate with said portion intended to generate at least the part of the beam comprising the oblique cut-off. The optical module comprises at least two distinct positions for arranging the light source, the light source occupying one of the two positions, each of the positions being defined on either side of the optical axis of the optical portion so as to generate a beam with oblique cut-off to the right in the first position and a beam with oblique cut-off to the left in the second position.

Abstract: A lamp assembly configured to be mounted to a vehicle includes a housing configured to be coupled to a vehicle and at least one light source disposed at least partially within an interior of the housing. The lamp assembly further includes a transparent polymeric lens coupled to the housing so as to substantially enclose the interior of the housing and the at least one light source. The transparent polymeric lens has a chromium-based reflective coating coated on at least a first area of an outer surface thereof. With the at least one light source electrically-connected to the vehicle, the chromium-based reflective coating is at least partially permeable to at least some light which is emitted by the at least one light source and passed through the transparent polymeric lens. At least a second area of the outer surface of the transparent polymeric lens is devoid of the chromium-based reflective coating.

Abstract: A vehicular headlamp system includes: a pair of right and left headlamp units; and a road surface drawing unit provided in the headlamp units, the road surface drawing unit being configured to emit first light so as to form a first light distribution pattern and to emit second light so as to form a second light distribution pattern, such that a predetermined drawing pattern is drawn on a road surface, the drawing pattern being configured such that the first light distribution pattern and the second light distribution pattern are adjacent to each other or the first light distribution pattern and the second light distribution pattern at least partially overlap each other, and the first light and the second light being set in a relationship of complementary colors.

Abstract: An illumination device having a plurality of illumination components including a plurality of different lenses, and capable of being secured to a mounting surface of a vehicle and performing a plurality of different functions.

Abstract: A heatsink for an optical module for a motor vehicle (V), wherein the heatsink includes a bent plate, the plate includes a central part adapted to receive at least one light source of the optical module and including two edges common with two lateral parts, the two common edges forming bending axes of the plate; and the two lateral parts each forming an angle (?) with the central parts.

Abstract: A vehicle headlight includes an LED lamp that emits a light bundle in a first main direction of propagation. A first reflector for deflecting the light bundle from the first main direction of propagation into a second main direction of propagation. A second reflector that deflects the light bundle from the second main direction into a third direction of propagation. The first main direction of propagation and the third main direction of propagation span an acute angle that is smaller than the angle spanned by the first main direction of propagation and second main direction of propagation.

Abstract: The present invention relates to a light emitting device comprising: a substrate; a translucent light mixing element arranged on the substrate; a color converting element arranged on top of the translucent light mixing element and arranged such that light from the translucent light mixing element is coupled into the color converting element; and a laser diode configured to emit light of a first color into the translucent light mixing element; wherein the color converting element is configured to convert a part of the light of the first color to a second color, to mix light of the first color with light of the second color to generate light of a third color, and to emit light of the third color; and wherein the translucent light mixing element has a thermal conductivity exceeding 10 W/mK.

Abstract: A lighting apparatus including a light generating device and at least one light wavelength conversion element and also at least one light directing means is provided. The light generating device and the at least one light directing means are configured in such a way that linearly polarized light is generated and directed from different directions to the at least one light wavelength conversion element, such that the linearly polarized light impinges on a surface of the at least one light wavelength conversion element from different directions in each case at an angle of incidence which corresponds to a Brewster angle, wherein the polarization direction of the linearly polarized light is parallel to the plane of incidence thereof.

Abstract: An automobile LED headlamp, comprising a stem, an LED module and a heat dissipation module, wherein, the LED module is mounted on the stem; the heat dissipation module comprises a fixing element and a plurality of heat dissipation strips, the fixing element is fixedly connected to one end of the stem, each of the heat dissipation strips is fixed to the fixing element, and each of the heat dissipation strips is distributed radially. The arrangement of the heat dissipation module is configured to enhance the heat dissipation capability, each heat dissipation strip is fixed on the fixing element in a annular and radial distribution, the heat dissipation area is maximized, the air convection speed is faster, and the heat dissipation is accelerated.

Abstract: A method of forming a headlamp assembly includes molding a one-piece lens from a substantially clear polymer material having a slightly yellow tint. A blue dye is infused into an outer surface of the lens to a maximum depth of about 6-10 microns such that the outer surface has a blue appearance. A core of the lens is substantially clear or slightly yellow. UV stabilizers may also be infused into an outer surface portion of the polymer material. The lens and an LED light source may be positioned inside a housing have a clear side wall. The blue dye alters the appearance of the lens without significantly reducing the light-transmitting properties of the lens.

Abstract: A lighting module for a motor vehicle includes a first light source and a first collimator for generating a first light beam of “low beam” type in collaboration with a first projection lens. Also included are second and a third light sources, the second light source collaborating with a second collimator to generate a first beam complementing the first light beam in order to form a second light beam of “high beam” type. In order to reduce the visibility of a cut-off zone in the second beam, the third light source collaborates with a third collimator and/or a second projection lens in order to form a second complementary beam which at least partly overlaps the cut-off zone. A front headlight for a motor vehicle can include such a lighting module.

Abstract: Monolithic LED chips are disclosed comprising a plurality of active regions on a submount, wherein the submount comprises integral electrically conductive interconnect elements in electrical contact with the active regions and electrically connecting at least some of the active regions in series. The submount also comprises an integral insulator element electrically insulating at least some of the interconnect elements and active regions from other elements of the submount. The active regions are mounted in close proximity to one another to minimize the visibility of the space during operation. The LED chips can also comprise layers structures and compositions that allow improved reliability under high current operation.

Abstract: There is provided a lighting device arranged to produce a controllable light beam for illuminating a scene. The device comprises an addressable spatial light modulator arranged to provide a selectable phase delay distribution to a beam of incident light. The device further comprises Fourier optics arranged to receive phase-modulated light from the spatial light modulator and form a light distribution. The device further comprises projection optics arranged to project the light distribution to form a pattern of illumination as said controllable light beam.

Abstract: A first photosensor is sensitive to the wavelength of excitation light, insensitive to the wavelength of fluorescent light, and receives a portion of the output light to generate a first current corresponding to the amount of light received. A second photosensor is sensitive to the fluorescent light wavelength, insensitive to excitation light wavelength, and receives a portion of the output light to generate a second current corresponding to the received light amount. A first current/voltage conversion circuit outputs a first detection voltage corresponding to the voltage drop across a first resistor. A second current/voltage conversion circuit outputs a second detection voltage corresponding to the voltage drop across a second resistor. If (i) a relation between the magnitudes of the first detection voltage and the second detection voltage has reversed, or (ii) if the first detection voltage deviates from a normal voltage range, a judgment unit asserts an abnormality detection signal.

Abstract: Described herein are LED chips incorporating self-aligned floating mirror layers that can be configured with contact vias. These mirror layers can be utilized to reduce dim areas seen around the contact vias due to underlying material layers without the need for the mirror layer to be designed at some tolerance distance from the electrical via. This increases mirror area, eliminating lower light reflection in the proximity of the via and producing higher light output with greater light emission uniformity. In some embodiments, the mirror layer is formed with a contact via. This allows for a self-aligning process and results in the mirror layer extending substantially from the edge of the via.

Abstract: A high/low beam switching device generally includes a fixing plate, a solenoid device, a shielding member, and a coil spring. The fixing plate defines an opening which is divided into three zones including an upper space, a middle space, and a lower space. The solenoid device is horizontally disposed in a frame fixed on a shelf extending from the fixing plate. The shielding member, which can cover the middle space of the fixing plate, is pivotally connected to the fixing plate. The solenoid device when being energized can turn the shielding member to uncover the middle space, so that a high beam illumination pattern can be provided. When the solenoid device is de-energized, the shielding member can be turned back to the fixing plate to cover the middle space, so that a low beam illumination pattern can be provided. Also, the present invention provides a headlamp including the switching device.

Abstract: A motor vehicle lighting module including an optical axis, a first optical system with at least one first light source, the system being configured to form a first lighting beam along the optical axis, with a horizontal cutoff; and a second optical system with at least one second light source, the system being configured to produce, in combination with the first optical system, a second lighting beam along the optical axis, that is vertically more extensive than the first beam. The light sources have a variable lighting power varying between a high level and a low level, the first beam being produced at the low level of lighting power and the second beam being produced at the high level of lighting power.

Abstract: A lighting system and a selective retro-reflection apparatus are provided. The lighting system includes a lamp, a reflector configured to reflect light emitted by the lamp, a projection lens configured to emit the reflected light of the reflector in a predetermined direction, and a selective shield apparatus disposed between the projection lens and the reflector and provided on a path of light directed upward among the light reflected from the reflector to selectively shield the light directed upward, wherein the selective shield apparatus includes a panel and a selective shield portion supported by the panel, positions of the panel and the selective shield portion are fixed, and a state in which the selective shield portion transmits the light is changed according to whether power is supplied.

Abstract: A lamp assembly operable to project light in a forward direction along an optical axis includes at least one light emitting device, a first light collector and a second light collector. The at least one light emitting device includes a light emitting surface. The first light collector is disposed on a first side of the light emitting device and defines a first axis. The first light collector is symmetrically disposed about the first axis. The second light collector is disposed on a second side of the light emitting device opposite the first side and defines a second axis. The second axis is substantially aligned with the first axis. The second light collector is symmetrically disposed about the second axis. The first and second axes are tangential to the light emitting surface.

Abstract: A lighting assembly for use with a vehicle body has outboard and inboard ends with respect to the vehicle body, as well as a housing connectable to the vehicle body. Additionally, a light fixture is positioned proximate the outboard end and has a plurality of light sources. An elongated light transfer optical system connects to the light fixture, has a distal end proximate the inboard end, and is configured to direct light from one or more of the light sources from the outboard end to the distal end such that some of the directed light is emitted through the distal end of the light transfer optical system. An outer lens is connected to the housing such that the light fixture and the light transfer optical system are encapsulated by the connected housing and outer lens. A vehicle includes the vehicle body and the lighting assembly, e.g., a front headlight assembly.

Abstract: A method for forming a light-emitting package structure provided with a predetermined view angle is provided. The method includes the steps of: disposing a flip chip on a carrier substrate; filling an underfill material between at least two electrodes of the flip chip for supporting the flip-chip; laser lifting-off a growing substrate from the flip chip for forming a thin film chip and exposing an epitaxial structure from the thin film chip; roughening the epitaxial structure exposed from the thin film chip; providing a view angle adjusting structure including a wavelength converting layer on the thin film chip, and selecting a predetermined view angle and achieving the predetermined view angle by adjusting the view angle adjusting structure according to a linear regression formula.

Abstract: A vehicle lamp apparatus may include a reflector arranged on one curve of a hyperbola having two focal points, a light source, located at a focal point of the curve of the hyperbola on which the reflector is arranged, for irradiating the reflector with light corresponding to an image, and a condensing lens part on which light, emitted from the light source and reflected by the reflector, is incident, the condensing lens part including at least two lenses for condensing the light reflected by the reflector.

Abstract: Various embodiments may relate to a semiconductor lamp having at least one semiconductor light source, including multiple separately produced components, wherein at least two of the components are connected to one another by means of joint extrusion coating. Various embodiments further relate to a method for producing a semiconductor lamp having at least one semiconductor light source. The method includes at least, inserting at least one open driver housing and a cover for the driver housing into an injection mold, and extrusion coating the components inserted into the mold using potting material so that these components are permanently connected to one another by the potting material.

Abstract: An automotive light includes a rear body; a front lenticular half-shell which closes the mouth of the rear body and is provided with at least one transparent/semi-transparent portion; and at least one lighting assembly which emits light upon command and is located within the rear body to backlight the transparent/semi-transparent portion of the front lenticular half-shell. The lighting assembly includes a planar OLED light source which emits light from its front face and is within the rear body with the front face facing the inner surface of the front lenticular half-shell to direct light towards the front lenticular half-shell; a concentrated LED light source behind the planar light source; and a light-guide rod of photoconductive material between the concentrated light source and the planar light source and receives light emitted by the concentrated light source and conveys the light towards the rear face of the planar light source.

Abstract: A vehicular headlamp includes: a first light distribution portion including a first light source; a second light distribution portion including a second light source and an micro electro mechanical system mirror; a holding member configured to hold the first light source, the second light source, and the micro electro mechanical system mirror; a single lens including a first lens portion and a second lens portion; and a separating wall formed in the holding member so as to protrude toward the vehicle front side relative to the holding member, the separating wall being configured to separate a region between the first lens portion and the holding member from a region between the second lens portion and the holding member.

Abstract: A lighting device having a first lighting unit comprising a first light source and a first optics element, disposed upstream thereof in the main beam direction, for generating a first lighting function. The lighting device also has a second light source and a second optics element, disposed upstream thereof in the main beam direction, for generating a second lighting function. The first optics element, disposed in front of the first light source in the main beam direction, is designed as a flat waveguide having a narrow-side light intake surface, having a narrow-side light output surface, and having opposing flat sides connecting the light intake surface and the light output surface. The light intake surface of the flat waveguide is disposed at such a spacing to the first light source that a lateral light beam emitted by the first light source strikes the second optics element in order to illuminate said optics element.

Abstract: A lighting assembly includes a composite lens, an optical reflector housing, and a lighting source. The composite lens has a clear lens portion, an opaque lens portion, and a first attachment feature. The optical reflector housing has a second attachment feature engaged with the first attachment feature, and further has a reflective inner surface. The optical reflector housing reflects incident light internally via the reflective inner surface and directs the reflected incident light through the clear portion. The composite lens defines a lighting cavity in conjunction with the optical reflector housing when the first and second attachment features are mutually engaged. The lighting source irradiates the lighting cavity with the incident light. A stacked headlight assembly includes vertically stacked first and second headlight assemblies, each having a composite lens, optical reflector, and lighting source.

Abstract: Prior art vehicular lighting has difficulty ensuring that spectral colors caused by chromatic aberration from a lens are not noticeable. This invention is provided with a semiconductor light source (2) and a lens (3). The lens (3) is constituted from an entrance face (30) and an exit face (31). The entrance face (30) has two sections. An upper lens portion (3U) forms a first partial light distribution pattern (P1). A lower lens portion (3D) forms a second partial light distribution pattern (P2). The upper part of the upper lens portion (3U) forms a top edge portion (P1U) of the first partial light distribution pattern (P1) having a cutoff line (CL1). The upper part of the lower lens portion (3D) forms a top edge portion (P2U) of the second partial light distribution pattern (P2) having a cutoff line (CL2), overlapping with the top edge portion (P1U) of the first partial light distribution pattern (P1).

Abstract: A part made of transparent material comprising at least two individual portions each consisting of an input surface and an output surface, the output surface being focused on the input surface of the same portion, the output surfaces being contiguous so as to form an overall output surface of the part which is continuous. Furthermore, the input surfaces are separated at a distance from one another in order to prevent rays from a light source placed on the input surface of a portion from being able to pass through the output surface of the adjacent individual portion.

Abstract: A lamp apparatus for a vehicle is provided. The lamp apparatus includes a light source that is configured to irradiate light, a light variable unit that is configured to implement a low beam by reflecting the light irradiated from the light source and transform a portion of the light into a plurality of angles to be reflected. The lamp further includes a first optical lens disposed to reflect light by the light variable unit to be incident and collect the incident light to be irradiated to the front and a second optical lens that transforms the light into the plurality of angles and reflected by the light variable unit to be incident. The angle-transformed and incident light irradiates to the front by the first optical lens.