JP2007109613A - Lamp for vehicle - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a lamp for a vehicle with proper heat radiation efficiency, that can lower the manufacturing cost by reducing the number of parts, as well as reducing its mass. <P>SOLUTION: The lamp for the vehicle is provided with a lamp unit 2 and a heat sink member 4. The lamp unit 2 is constituted of a semi-conductor type light source 14 as a light source, a projecting lens 15 for irradiating light from the semiconductor-type light source 14 in a specified direction and retaining members 10 and 11 retaining the projecting lens 15. The heat sink member 4 comprises an attachment surface 23, to which the semiconductor-type light source 14 and the retaining members 10 and 11 are attached directly; and heat radiating parts 24, which are provided in at least two directions, excluding the direction in which the projecting lens 15 is positioned among the six directions facing the attachment surface 23. <P>COPYRIGHT: (C)2007,JPO&INPIT

Description

  The present invention relates to a vehicular lamp that uses a semiconductor-type light source, for example, a self-luminous semiconductor-type light source such as an LED or an EL (organic EL). In particular, the present invention relates to a vehicular lamp that has an excellent heat dissipation effect.

  This type of vehicular lamp is conventionally known (for example, Patent Document 1). Hereinafter, a conventional vehicle lamp will be described. A conventional vehicular lamp includes a plurality of lamp units each having a semiconductor light emitting element as a light source, and a common metal formed in a step shape and having a plurality of radiating fins projecting downward from the lower surface of each stepped portion. A plurality of lamp units, each of which is supported on the upper surface of each step of the metal support member, and a plurality of types of light distribution patterns are formed by the plurality of lamp units. Is.

  Hereinafter, the operation of the conventional vehicle lamp will be described. When the semiconductor light emitting element is turned on to emit light, a predetermined light distribution pattern is emitted (emitted, emitted, projected) from the plurality of lamp units to the outside. On the other hand, heat is generated in the semiconductor light emitting element by the light emission, and the heat is radiated to the outside from the heat radiation fin of the metal support member. For this reason, the conventional vehicular lamp can use a high-luminance semiconductor light-emitting element.

  However, in the conventional vehicular lamp, a plurality of radiating fins are formed so as to protrude downward from the lower surface of each step portion of the metal support member. It is radiated only in one direction from the heat radiation fins on the lower surface of each step portion of the support member. For this reason, the conventional vehicle lamp has a problem in the heat dissipation effect.

JP 2004-31224 A

  The problem to be solved by the present invention is that the conventional vehicular lamp has a problem in the heat dissipation effect.

  The present invention (the invention according to claim 1) includes a lamp unit and a heat sink member, and the lamp unit includes a semiconductor light source as a light source, and the semiconductor light source is directly attached to the heat sink member. And a heat dissipating portion provided in at least two directions with respect to the mounting surface.

  Further, according to the present invention (the invention according to claim 2), the plurality of heat sink members each supporting the lamp unit are substantially orthogonal to the direction in which the light from the semiconductor light source is irradiated to the outside through the connecting member. It is integrally connected in a substantially horizontal direction, and the connecting member is provided with a heat radiating portion.

  Further, the present invention (the invention according to claim 3) is characterized in that the plurality of heat sink members are arranged so as to be shifted in the direction of irradiating light from the semiconductor-type light source to the outside.

  Furthermore, the present invention (the invention according to claim 4) adjusts the optical axis of the lamp unit or the plurality of lamp units to the plurality of heat sink members integrally connected via the heat sink member or the connection member. An optical axis adjustment mechanism is provided.

  In the vehicular lamp according to the present invention (the invention according to claim 1), since the heat sink is provided in at least two directions on the heat sink member to which the semiconductor light source is directly attached, the heat generated in the semiconductor light source is generated. Radiated in at least two directions from the heat dissipation portion of the heat sink member. For this reason, the vehicular lamp of the present invention (the invention according to claim 1) has a better heat dissipation effect and an excellent heat dissipation effect than a conventional vehicular lamp in which heat is radiated in one direction. Moreover, in the vehicular lamp of the present invention (the invention according to claim 1), since the heat sink member also serves as a support member that supports the lamp unit, the number of parts can be reduced, and the manufacturing cost can be reduced. , The mass can be reduced.

  In the vehicular lamp of the present invention (the invention according to claim 2), a plurality of heat sink members that respectively support the lamp unit are integrally connected in a substantially horizontal direction via a connecting member. Compared with the conventional vehicle lamp which arrange | positions a unit up and down, a vertical width | variety can be made small. As a result, the vehicular lamp of the present invention (the invention according to claim 2) is suitable for a vehicular lamp having a thin vertical width. Moreover, in the vehicular lamp according to the present invention (the invention according to claim 2), the connecting member that integrally connects the plurality of heat sink members that respectively support the lamp unit in the substantially horizontal direction is provided with a heat radiation portion. The heat dissipating effect is further improved by the heat dissipating action of the heat dissipating part of the connecting member and the heat dissipating part provided in at least two directions. Moreover, in the vehicular lamp according to the present invention (the invention according to claim 2), since the plurality of heat sink members are integrated through the connecting member, the number of parts can be reduced and the manufacturing cost can be reduced. And mass can be reduced.

  Further, in the vehicular lamp according to the present invention (the invention according to claim 3), the plurality of heat sink members are arranged so as to be shifted in the direction of irradiating the light from the semiconductor light source to the outside. Suitable for mounting on slant and sloping parts. Moreover, in the vehicular lamp according to the present invention (the invention according to claim 3), a plurality of heat sink members, that is, heat sources including a semiconductor-type light source are arranged obliquely and separated from each other. This distance is longer compared to that arranged on a straight line, and the heat dissipation effect is further improved accordingly.

  Furthermore, the vehicular lamp according to the present invention (the invention according to claim 4) is provided with the optical axis adjusting mechanism directly on the plurality of heat sink members integrally connected via the heat sink member or the connection member. An optical axis adjustment frame for providing an optical axis adjustment mechanism is not required, and the number of parts can be reduced, and the manufacturing cost can be reduced, and the mass can be reduced.

  Embodiments of a vehicular lamp according to the present invention will be described below in detail with reference to the drawings. Note that the present invention is not limited to the embodiments.

  Hereinafter, the configuration of the vehicular lamp in this embodiment will be described. The vehicle lamps in this embodiment are automobile headlamps 1L and 1R that irradiate a light distribution pattern for passing. The headlamps 1L and 1R are respectively provided on the left and right sides of the front portion of the automobile C as shown in FIGS. Hereinafter, the right headlamp 1R will be described. The left headlamp 1L is substantially opposite to the right headlamp 1R in structure.

  As shown in FIGS. 1 and 2, the headlamp 1R includes two first lamp units 2, 2, one second lamp unit 3, two heat sink members 4, 4, and a connecting member. 5, a lamp housing 6, a lamp lens 7, an inner panel 8, and an optical axis adjusting mechanism.

  A lamp chamber 9 is defined by the lamp housing 6 and the lamp lens 7. In the lamp chamber 9, the two first lamp units 2, 2, the one second lamp unit 3, the two heat sink members 4, 4, the connecting member 5, the inner panel 8, The optical axis adjustment mechanisms are respectively disposed. The lamp lens 7 is a substantially transparent lens and is a so-called outer cover (outer lens). The inner panel 8 improves the appearance by hiding the structure in the lamp chamber 9 from the outside through the lamp lens 7 so as not to be seen.

  The first lamp unit 2 bears a cut-off line and a light distribution pattern near the cut-off line among the light distribution patterns for passing. As shown in FIGS. 1 to 3, the first lamp unit 2 is a projector type and has a unit structure. The first lamp unit 2 includes an upper reflector 10 and a lower reflector 11, two reflecting surfaces 12, 12 and a shade 13, two semiconductor-type light sources 14, 14, and a projection lens (convex lens, condenser lens). 15).

  The upper reflector 10 and the lower reflector 11 are made of a light-impermeable resin member or the like, and are also used as a holding member that holds the projection lens 15. Further, as shown in FIG. 3, the upper reflector 10 and the lower reflector 11 are vertically divided into two on the horizontal axis. The upper reflector 10 and the lower reflector 11 are fixed together by a fixing means (not shown) (for example, a bolt nut, a screw, a caulking, a clip, etc.) and are fixed to the heat sink member 4.

  As shown in FIG. 3, the upper reflector 10 has a front portion opened in a semicircular shape, and is closed from the front portion to the rear portion through the central portion (upper portion). The inner surface of the closed portion from the rear half to the rear portion of the central portion of the upper reflector 10 is subjected to aluminum vapor deposition or silver coating, and the two reflecting surfaces 12 and 12 are provided. Yes. In FIG. 3, one reflecting surface 12 is shown.

  The reflection surface 12 is a reflection surface based on an ellipse, for example, a reflection surface such as a rotation ellipsoid or a free-form surface based on an ellipse. As a result, as shown in FIG. 1, the reflection surface 12 has a first focus and a second focus, and an axis connecting the first focus and the second focus, that is, an optical axis of the reflection surface. .

  As shown in FIG. 3, the lower reflector 11 has a front portion opened in a semicircular shape, and is closed from the front portion to the rear portion through the central portion (lower portion). An opening 16 is provided from the central portion to the rear portion.

  As the semiconductor-type light source 14, for example, a self-luminous semiconductor-type light source (LED in this embodiment) such as an LED or an EL (organic EL) is used. 3 to 6, the semiconductor light source 14 includes a substrate 17, a light source chip (semiconductor chip) light emitter (not shown) fixed to one surface of the substrate 17, and the light emitter. And a light transmitting member 18 to be covered. The two semiconductor light sources 14 and 14 are directly attached to the heat sink member 4, respectively. That is, the substrate 17 of the semiconductor light source 14 is directly and integrally attached to the heat sink member 4 by the screw 19. When the heat sink member 4 is made of metal, an insulating heat conductive film or the like is interposed between the substrate 17 and the heat sink member 4. The light emitters of the two semiconductor light sources 14 and 14 are located at or near the first focal point of the two reflecting surfaces 12 and 12.

  Further, the shade 13 is integrally provided at a central portion of the lower reflector 11. As shown in FIG. 3, the shade 13 includes a horizontal plate portion. Edges 20 that form a cut-off line of the light distribution pattern for passing are provided in the left-right direction at the corners of the shade 13 and the vertical plate portion of the horizontal flat plate portion. The edge 20 is located at or near the second focal point of the two reflecting surfaces 12. A reflective surface may be provided on the inner surface of the lower reflector 11, for example, on the upper surface of the horizontal plate portion of the shade 13.

  The projection lens 15 is held at the edge of the front semicircular opening of the upper reflector 10 and the edge of the front semicircular opening of the lower reflector 11. That is, mounting slits 21 are respectively provided at the edge of the front semicircular opening of the upper reflector 10 and the edge of the front semicircular opening of the lower reflector 11. On the other hand, on the upper and lower sides of the projection lens 15, there are provided convex protrusions 22 for attachment that are elongated to the left and right. The projection lens 15 is held by the upper reflector 10 and the lower reflector 11 by fitting the convex portion 22 into the slit 21. As shown in FIG. 3, the projection lens 15 is an aspherical convex lens. The front side of the projection lens 15 forms a convex aspheric surface, while the rear side of the projection lens 15 forms a substantially flat or substantially convex aspheric surface. The projection lens 15 has a front focal point (not shown) and a rear focal point, and an axis connecting the front focal point and the rear focal point, that is, an optical axis of the lens. The projection lens 15, together with the reflection surface 12 and the shade 13, constitutes an optical member that irradiates light from the semiconductor light source 14 in a predetermined direction.

  The heat sink member 4 supports the first lamp unit 2 and includes an attachment surface 23 and a heat radiating portion 24. As shown in FIGS. 4 and 6, the mounting surface 23 has a substantially rectangular horizontal plane. The two semiconductor-type light sources 14 and 14 and the upper reflector 10 and the lower reflector 11 as holding members are directly attached to the attachment surface 23. The heat radiating portion 24 is provided in at least two directions with respect to the mounting surface 23, in this example, in the four directions of rear, lower, left, and right.

  The two heat sink members 4 and 4 that respectively support the first lamp unit 2 are arranged in a substantially horizontal direction (right and left) substantially orthogonal to the light irradiation direction from the projection lens 15 via the connecting member 5. Direction). The mounting surfaces 23 and 23 of the two heat sink members 4 and 4 and the upper surface of the connecting member 5 are connected flush with each other. Further, the two heat sink members 4, 4 are arranged so as to be shifted in the light irradiation direction (front-rear direction) from the projection lens 15. That is, the heat sink member 4 and the first lamp unit 2 on the left side (center side of the automobile C) are arranged on the front side, and the heat sink member 4 and the first lamp unit 2 on the right side (outside of the automobile C) are Located on the back side. Further, the connecting member 5 is integrally provided with a heat radiating portion 25.

  The two heat sink members 4, 4, the connecting member 5, and the heat radiating members 24, 25 are integrally formed and are made of a material having good thermal conductivity, for example, in this example, made of aluminum die casting. Become. In this example, the heat dissipating parts 24 and 25 have a fin shape extending in the vertical direction and the front-rear direction (irradiation direction of light from the projection lens 15). In addition, as the said heat radiating parts 24 and 25, pin shape, uneven | corrugated shape, etc. other than the said fin shape may be sufficient. That is, any material having a large surface area and a large heat dissipation effect may be used.

  A mounting seat 33 is integrally provided at the front end of the heat radiating portion 25 of the connecting member 5. The mounting seat 33 has a vertical surface inclined along the two first lamp units 2 and the heat sink member 4. The second lamp unit 3 is mounted on the vertical surface of the mounting seat 33.

  The second lamp unit 3 bears a wide range of diffused light distribution patterns on the near side of the passing light distribution patterns. The second lamp unit 3 includes a light source (not shown, for example, a light source such as a semiconductor light source, a discharge lamp, a halogen bulb, an incandescent bulb) and a lens that irradiates light from the light source in a predetermined direction. It is configured. The second lamp unit 3 includes a direct type lamp, a projector type lamp, a reflection type lamp, a reflection-reflection type lamp, and the like.

  As shown in FIGS. 1 and 2, the optical axes of the two first lamp units 2, 2 are adjusted to the two heat sink members 4, 4 that form an integral structure via the connecting member 5. The optical axis adjusting mechanism is provided. That is, a vertical screw mounting 27, a horizontal screw mounting 28, and a ball receiving portion 29 are directly attached to the two heat sink members 4 and 4, respectively. On the other hand, a vertical adjustment screw 30 and a horizontal adjustment screw 31 are rotatably attached to the lamp housing 6, and a ball portion 32 is attached. The vertical adjustment screw 30 and the horizontal adjustment screw 31 are screwed into the vertical screw mounting 27 and the horizontal screw mounting 28, respectively. The ball receiving portion 29 is fitted with the ball portion 32 to form a ball joint.

  The vehicular lamp in this embodiment is configured as described above, and the operation thereof will be described below.

  First, the semiconductor-type light sources 14, 14, 14, 14 of the two first lamp units 2 and 2 of the headlamps 1L and 1R and the light source of the single second lamp unit 3 are turned on. Then, the light from the semiconductor light sources 14, 14, 14, 14 of the two first lamp units 2, 2 is reflected by the reflecting surfaces 12, 12, 12, 12, and part of the reflected light is reflected by the shade 13. A predetermined light distribution pattern that is cut off and the remaining reflected light passes through the projection lens 15 and has a cut-off line to the outside, that is, the light distribution pattern for passing, is responsible for the cut-off line and the light distribution near the cut-off line. Irradiated with a light distribution pattern. Further, the light from the light source of one second lamp unit 3 passes through the lens 26 and externally has a predetermined light distribution pattern, that is, a wide range of diffuse light distribution patterns on the near side of the light distribution pattern for passing. Irradiated with. As a result, a predetermined light distribution pattern for passing is obtained.

  Heat is generated in the semiconductor light sources 14, 14, 14, 14 when the semiconductor light sources 14, 14, 14, 14 of the two first lamp units 2, 2 of the headlamps 1 </ b> L, 1 </ b> R are lit. To do. This heat is first transferred to the mounting surfaces 23 and 23 of the two heat sink members 4 and 4 to which the semiconductor light sources 14, 14, 14 and 14 are directly mounted. Next, the heat transmitted to the mounting surfaces 23, 23 is radiated to the outside, that is, into the lamp chamber 9 from the heat radiation portion 24 provided in four directions with respect to the mounting surfaces 23, 23. The heat transmitted to the mounting surfaces 23, 23 is radiated from the heat radiating portion 25 to the outside, that is, into the lamp chamber 9 through the connecting member 4 to which the two heat sink members 4, 4 are connected. On the other hand, when the light source of one second lamp unit 3 of the headlamps 1L and 1R is in a lighting state, heat is generated in the light source. This heat is radiated from the heat portion 25 of the connecting member 4 to the outside, that is, the lamp chamber 9.

  Then, the vertical adjustment screw 30 is adjusted. Then, the two first lamp units 2, 2 and one second lamp unit 3 and the two heat sink members 4, 4 and the connecting member 5, which form an integral structure, are composed of a ball joint portion 29 and a ball portion of a ball joint. Rotate up and down about a substantially horizontal line connecting 32 and the screw mounting 28 in the left and right direction. As a result, the optical axes of the two first lamp units 2 and 2 and the optical axis of the one second lamp unit 3 are adjusted in the vertical direction. On the other hand, the adjustment screw 31 in the left-right direction is adjusted. Then, the two first lamp units 2, 2 and one second lamp unit 3 and the two heat sink members 4, 4 and the connecting member 5, which form an integral structure, are composed of a ball joint portion 29 and a ball portion of a ball joint. Rotate in the left-right direction around a substantially vertical line connecting 32 and the screw mounting 27 in the up-down direction. As a result, the optical axes of the two first lamp units 2 and 2 and the optical axis of the one second lamp unit 3 are adjusted in the left-right direction.

  The vehicular lamp in this embodiment is configured and operated as described above, and the effects thereof will be described below.

  The vehicle lamps (headlamps 1L, 1R) in this embodiment are generated in the semiconductor light source 14 because the heat sink member 4 to which the semiconductor light source 14 is directly attached is provided with the heat radiation portions 24 in four directions. The radiated heat is radiated in four directions from the heat radiating portion 24 of the heat sink member 4. For this reason, the vehicular lamps (headlamps 1L, 1R) in this embodiment have a better heat dissipation effect and better heat dissipation effect than conventional vehicular lamps that radiate heat in one direction. Moreover, in the vehicle lamps (headlamps 1L, 1R) in this embodiment, since the heat sink member 4 also serves as a support member that supports the first lamp unit 2, the number of parts is reduced and the manufacturing cost is reduced. And the mass can be reduced.

  In particular, in the vehicle lamps (headlamps 1L, 1R) in this embodiment, the two heat sink members 4 and 4 supporting the first lamp units 2 and 2 are integrated in a substantially horizontal direction via the connecting member 5, respectively. Since they are connected, the vertical width can be reduced as compared with a conventional vehicular lamp in which a plurality of lamp units are arranged vertically. As a result, the vehicular lamp (headlamps 1L, 1R) in this embodiment is suitable for a vehicular lamp having a thin vertical width. Moreover, the vehicular lamp (headlamps 1L, 1R) in this embodiment is connected to the connecting member 5 that integrally connects the two heat sink members 4, 4 supporting the first lamp units 2, 2 in the substantially horizontal direction. Since the heat radiation part 25 is provided, the heat radiation effect is further improved by the heat radiation action of the heat radiation part 25 of the connecting member 5 and the heat radiation part 24 provided in the four directions. In addition, since the two heat sink members 4 and 4 are integrated via the connecting member 5 in the vehicle lamp (headlamps 1L and 1R) in this embodiment, the number of parts is reduced and the manufacturing cost is low. And the mass can be reduced.

  Further, in the vehicle lamp (headlamps 1L, 1R) in this embodiment, the two heat sink members 4 and 4 transmit the light from the semiconductor light source 14 through the projection lens 15 of the optical member and radiate the light to the outside. In other words, since they are arranged so as to be displaced in the front-rear direction, they are suitable for mounting on a wraparound portion (slant portion, inclined portion) of the vehicle body. Moreover, in the vehicle lamps (headlamps 1L, 1R) in this embodiment, the heat sources including the two heat sink members 4, 4, i.e., the semiconductor-type light sources 14, 14, are arranged obliquely apart from each other. Therefore, the distance between the two heat sources is longer than that on a straight line, for example, directly next to the heat source, and the heat dissipation effect is further improved accordingly.

  Further, since the vehicle lamps (headlamps 1L, 1R) in this embodiment are directly provided with the optical axis adjusting mechanism in the two heat sink members 4, 4 integrally connected via the connecting member 5, the heat sink member The optical axis adjusting frame for providing the optical axis adjusting mechanism on 4 and 4 becomes unnecessary, and accordingly, the number of parts can be reduced, the manufacturing cost can be reduced, and the mass can be reduced. .

  Hereinafter, examples other than the above-described embodiment will be described. In the above-described embodiment, the heat radiating portion 24 is provided on the heat sink member 4 in four directions with respect to the mounting surface 23 on which the semiconductor light source 14 is directly mounted. However, in this invention, what is necessary is just to provide the thermal radiation part in at least 2 directions with respect to the attachment surface. However, the direction in which the light from the semiconductor-type light source 14 is radiated to the outside, and the direction in which the projection lens 15 of the optical member is positioned (front) are excluded in the above embodiment.

  In the above-described embodiment, the heat sink member 4 having the first lamp unit 2 is connected via two connecting members 5. However, in the present invention, one heat sink member 4 having the first lamp unit 2 may be provided, or three or more heat sink members 4 may be provided. In addition, when the heat sink member 4 is one, the connection member 5 becomes unnecessary.

  Further, in the above-described embodiment, the two (plural) first lamp units 2 and 2 and the heat sink members 4 and 4 are arranged horizontally, and are arranged to be shifted back and forth. However, in the present invention, the plurality of first lamp units 2 and the heat sink member 4 may be arranged obliquely or vertically, and may be arranged without shifting back and forth.

  Furthermore, in the above embodiment, the heat sink member 4 is provided with an optical axis adjusting mechanism. However, in the present invention, it is not necessary to provide the optical axis adjusting mechanism in the heat sink member 4.

  Furthermore, in the said Example, the 2nd lamp unit 3 is provided with respect to the 1st lamp unit 2 which uses the semiconductor type light source 14 as a light source. However, in the present invention, the second lamp unit 3 may not be provided.

It is a front view of the state which removed the lamp lens which shows the Example of the vehicle lamp concerning this invention. Similarly, it is a horizontal sectional view (transverse section). Similarly, it is the III-III sectional view taken on the line in FIG. Similarly, it is a perspective view showing four semiconductor type light sources and two heat sink members and a connecting member which form an integral structure. Similarly, it is a front view showing four semiconductor-type light sources, two heat sink members, and a connecting member that form an integral structure. Similarly, it is a plan view showing four semiconductor-type light sources, two heat sink members and a connecting member forming an integral structure. Similarly, it is a front view which shows the state used as a headlamp of a motor vehicle. Similarly, it is a top view which shows the state used as a headlamp of a motor vehicle.

Explanation of symbols

C Automobile 1L, 1R Headlamp (Vehicle lamp)
2 1st lamp unit 3 2nd lamp unit 4 heat sink member 5 connecting member 6 lamp housing 7 lamp lens 8 inner panel 9 lamp chamber 10 upper reflector (holding member)
11 Lower reflector (holding member)
12 Reflecting surface 13 Shade 14 Semiconductor light source (LED)
DESCRIPTION OF SYMBOLS 15 Projection lens 16 Opening part 17 Board | substrate 18 Light transmissive member 19 Screw 20 Edge 21 Slit 22 Convex part 23 Mounting surface 24, 25 Heat radiation part 26 Lens 27 Screw mounting of a vertical direction 28 Screw mounting of a horizontal direction 29 Ball receiving part 30 Vertical direction Adjusting screw 31 Adjusting screw in the left-right direction 32 Ball section 33 Mounting seat

Claims (4)

In a vehicle lamp that uses a semiconductor-type light source as a light source,
A lamp unit, and a heat sink member that supports the lamp unit,
The lamp unit is composed of the semiconductor-type light source as a light source,
The heat sink member is composed of an attachment surface to which the semiconductor-type light source is directly attached, and a heat radiation portion provided in at least two directions with respect to the attachment surface.
A vehicular lamp characterized by the above. The plurality of heat sink members, each supporting the lamp unit, are integrally connected in a substantially horizontal direction substantially orthogonal to the direction of irradiating light from the semiconductor-type light source to the outside via a connecting member. The connecting member is provided with a heat radiating portion.
The vehicular lamp according to claim 1. The plurality of heat sink members are arranged to be shifted in the direction of irradiating light from the semiconductor-type light source to the outside.
The vehicular lamp according to claim 2. The plurality of heat sink members that are integrally connected via the heat sink member or the connection member are provided with an optical axis adjustment mechanism that adjusts the optical axis of the lamp unit or the plurality of lamp units. ,
The vehicular lamp according to any one of claims 1 to 3.

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