JP6711724B2 - Vehicle headlights - Google Patents

Description

The present invention relates to a vehicle headlamp, and more particularly to a vehicle headlamp that can prevent a gap from being formed in the light distribution of two light sources that emit light in mutually different directions.

Vehicle headlights, which are representative of automobile headlights, include a low-beam light source that illuminates the front at night, a high-beam light source that illuminates farther than the low beam, and the presence of a vehicle during the day. It is known that a daytime running lamp (DRL) or the like for indicating is mounted. The light from the high beam and the daytime running lamp includes light emitted above the low beam. Therefore, the high beam illuminates farther than the low beam as described above, and the light from the daytime running lamp can be visually recognized from a position higher than the low beam. Some vehicle headlamps include these light sources in one lamp unit.

For example, in Patent Document 1 below, a reflector having a parabolic columnar reflecting surface formed by extending a parabola in the width direction, and a plurality of LEDs located above the reflector and arranged in a plurality of rows in the front-rear direction are provided. An automotive lamp including the same is disclosed. More specifically, there is disclosed a vehicle lighting device capable of forming a light distribution in which a plurality of LEDs arranged in three rows in the front-rear direction overlap each other. By forming a plurality of light distributions in this manner, a low beam or a high beam can be obtained.

JP, 2005-185232, A

However, from the viewpoint of reducing the manufacturing cost of the lamp, it is preferable that various light distributions can be formed with a small number of light sources. Therefore, in the vehicle lighting device described in Patent Document 1, when two light sources are used to form a plurality of light distributions such as a low beam and a high beam, the light distributions of the lights emitted from the two light sources in different directions are separated from each other. There is a concern that For example, when one light source is for low beam and the other one is for high beam, there is a concern that a light distribution from the two light sources does not overlap and a gap is formed.

Therefore, the present invention is to provide a vehicle headlamp that can suppress the formation of a gap in the distribution of light from two light sources that emit light in different directions.

In order to solve the above problems, a vehicle headlamp of the present invention includes a first light source that emits a first light that is a low beam, a light guide body through which the first light is transmitted, and the light guide body. A first reflector having a concave first reflection surface that reflects the emitted first light forward, and a second reflector that is arranged in front of the first light source and is irradiated above the first light. A second light source that emits light, and the light guide body includes a first incident surface on which the first light is incident, and the first reflection on the first light incident on the light guide body. An emission surface that emits toward the surface, an internal reflection surface that totally reflects the first light that is incident on the light guide and shares the front edge of the emission surface, and an outer surface of the internal reflection surface. And a second incident surface that is a part of the second light is radiated to a portion of the light guide including the edge portion, and the second light is emitted from the second incident surface. The other part of the second light passes through the front of the edge portion and is reflected forward by the first reflecting surface. It is characterized by

In the above vehicle headlamp, the edge portion of the front end of the emission surface of the light guide is shared by the internal reflection surface that totally internally reflects the first light incident on the light guide. That is, the internal reflection surface is continuously formed at the front end of the emission surface. For this reason, of the first light that enters the light guide, the first light that is forward of the front edge portion of the emission surface is totally internally reflected backward by the internal reflection surface. Therefore, the first light incident on the light guide passes rearward of the edge of the light guide and is emitted toward the first reflecting surface, and the edge of the light guide is distributed to the first light distribution. Form a cut line. Here, in the above vehicle headlamp, a part of the second light is applied to a portion of the light guide including the edge portion, and the light guide enters from the second incident surface that is the outer surface of the internal reflection surface. It is emitted from the emission surface through and is reflected forward by the first reflection surface. In this way, part of the second light also passes behind the edge of the light guide and is reflected by the first reflecting surface, so that a part of the light distribution of the first light and the light distribution of the second light. And some of them overlap each other. That is, it is possible to suppress the formation of a gap between the light distribution of the light from the first light source and the light distribution of the light from the second light source that emit light in different directions. It should be noted that another part of the second light, which passes through the front of the edge portion and is reflected forward by the first reflecting surface, tends to be emitted above the cut line. Therefore, for example, the first light and the second light can be combined into a high beam, and in this case, it is possible to prevent a gap from being formed in the light distribution of the high beam.

In the vehicle headlamp, it is preferable that the light guide body and the first reflector are integrated.

Since the light guide body and the first reflector are integrated, the relative position of the light guide body and the first reflecting surface is fixed, so that the light guide body and the first reflector are provided so as to obtain a desired light distribution. Will be easier to place.

Further, it is preferable that the first incident surface of the light guide body is formed of a surface of a condenser lens that converges the first light in the direction of the emission surface.

By configuring the first incident surface of the light guide body with the above-described condensing lens, it becomes easier for the first light to reach the first reflecting surface, and it becomes easier to effectively use the first light.

Further, it is preferable that a second reflector having a second reflecting surface that reflects at least a part of the second light backward is provided in front of the second light source and the light guide.

By providing the second reflector, it becomes easier for the second light to reach the first reflecting surface, and it becomes easier to effectively use the second light. In addition, since the second reflector is provided, the light guide, the second light source, and the first light source arranged rearward of the second light source can be hidden by the second reflector. The designability can be improved.

Moreover, it is preferable that the second reflecting surface is formed so as to converge the second light toward the edge portion.

As mentioned above, the edges of the light guide form cut lines for the distribution of the first light. By converging the second light toward the edge of the light guide, the vicinity of the cut line of the light distribution of the first light, that is, the light distribution of the first light and the light distribution of the second light are It becomes easier to collect the second light at the overlapping position.

As described above, according to the present invention, there is provided a vehicle headlamp that can suppress the formation of a gap in the light distribution of light from two light sources that emit light in mutually different directions.

It is a front view showing the outline of the vehicle provided with the vehicle headlamp in the embodiment of the present invention. FIG. 2 is a sectional view of the lamp taken along line II-II of FIG. 1. 3(A) is a cross-sectional view showing the light guide body and its surroundings in the lamp shown in FIG. 2, and FIG. 3(B) is a view of the portion shown in FIG. 3(A) viewed from below. It is a figure which shows light distribution.

Hereinafter, modes for carrying out a vehicle headlamp according to the present invention will be illustrated with reference to the accompanying drawings. The embodiments illustrated below are for facilitating the understanding of the present invention and are not for limiting the interpretation of the present invention. The present invention can be modified and improved from the following embodiments without departing from the spirit thereof.

First, the configuration of the vehicle headlamp of the present embodiment will be described.

FIG. 1 is a front view showing an outline of a vehicle including a vehicle headlamp according to the present embodiment. As shown in FIG. 1, a vehicle 100 includes a pair of vehicle headlamps in the front and left and right directions, respectively. That is, each vehicle headlamp 1 is arranged outside the center of the vehicle 100 in the left-right direction. Further, the pair of vehicle headlamps 1 provided in the vehicle 100 have shapes symmetrical to each other in the left-right direction. In the vehicle headlamp 1 of the present embodiment, a plurality of lamps 1b are arranged on the outermost side of the vehicle 100, the lamp 1c is arranged on the most center side of the vehicle 100, and the lamp 1a is arranged between the lamps 1b and 1c. Lamps 1a, 1b, 1c are arranged side by side. The respective lamps 1a, 1b, 1c have the same configuration except that the light distribution is appropriately adjusted as described later.

2 is a sectional view of the lamp taken along the line II-II in FIG. As shown in FIG. 2, a lamp 1 a that is a part of the vehicle headlamp 1 includes a housing 10 and a lamp unit LU housed in the housing 10.

The housing 10 includes a lamp housing 11, a front cover 12, and a back cover 13 as main components. The front of the lamp housing 11 is open, and the front cover 12 is fixed to the lamp housing 11 so as to close the opening. In addition, an opening smaller than the front is formed in the rear of the lamp housing 11, and the back cover 13 is fixed to the lamp housing 11 so as to close the opening.

The space formed by the lamp housing 11, the front cover 12 that closes the front opening of the lamp housing 11, and the back cover 13 that closes the rear opening of the lamp housing 11 is a lamp chamber LR. A lamp unit LU is housed inside.

The lamp unit LU includes a support member 30, a first light source 41, a second light source 42, a light guide body 50, a first reflector 60, and a second reflector 70 as main constituent elements.

The support member 30 is a metal member and includes a top plate 31, a back plate 32, and a locking portion 33. The top plate 31 is a plate-shaped metal member that extends substantially horizontally, and the back plate 32 is a plate-shaped metal member that extends substantially vertically. The rear end of the top plate 31 and the upper end of the back plate 32 are connected to each other. A locking portion 33 is connected near the upper end of the back plate 32. The locking portion 33 extends rearward from the back plate 32, and the locking portion 33 is formed with a screw hole that opens rearward. A screw 22 is screwed into the screw hole from the outside of the lamp housing 11, and the locking portion 33 is fixed to the lamp housing 11. A screw hole is also formed below the back plate 32, and a screw 23 is screwed into the screw hole from the outside of the lamp housing 11 to fix the back plate 32 to the lamp housing 11. In this way, the back plate 32 is fixed in the lamp chamber LR in a substantially vertical state, and the top plate 31 connected to the back plate 32 is also fixed in the lamp chamber LR. By adjusting the screws 22 and 23, the angle of the back plate 32 can be finely adjusted, and accordingly, the angle of the top plate 31 can be finely adjusted.

The first light source 41 is a light source that emits the first light L ₁ that becomes a low beam. In the present embodiment, the first light source 41 is arranged on the lower surface of the top plate 31. The first light L ₁ emitted from the first light source 41 is light that passes through the light guide body 50, is reflected by the first reflector 60, and then becomes a low beam. The first light source 41 is, for example, an LED (Light Emitting Diode). The first light source 41 is connected to a circuit board (not shown), and can emit the first light L ₁ by feeding power from the circuit board.

3A is a cross-sectional view showing the light guide body 50 and its surroundings in the lamp shown in FIG. 2, and FIG. 3B is a view of the portion shown in FIG. The light guide body 50 is disposed below the first light source 41 and transmits the _first light L ₁ emitted from the first light source 41. Light guide 50 has a first incident surface 51 of the first light L ₁ is incident, the first light exit surface 52 that emits light L ₁ incident on the light guide 50, the edge of the front end of the exit surface 52 It has an internal reflection surface 54i that totally reflects the _first light L ₁ that shares the portion 53 and is incident on the light guide body 50, and a second incident surface 54o that is an outer surface of the internal reflection surface. In the present embodiment, the first incident surface 51 is the upper surface of the light guide body 50, the emission surface 52 is the lower surface of the light guide body 50, and the internal reflection surface 54i is the front surface of the light guide body 50. Is. Since the edge portion 53 of the light guide body 50 at the front end of the emission surface 52 is shared with the internal reflection surface 54i, the internal reflection surface 54i is continuously formed at the front end of the emission surface 52. Therefore, first of the first light L ₁ towards the front than the edges 53 of the front end of the exit surface 52 of the light L ₁ incident on the light guide 50 is totally internally reflected back by the internal reflection surface 54i It Therefore, the first light L ₁ is suppressed from passing ahead of the edge portion 53. That is, the first light L ₁ that enters the light guide body 50 passes behind the edge portion 53.

In addition, in the present embodiment, the first incident surface 51 of the light guide body 50 is configured by the surface of the condenser lens that converges the first light L ₁ in the direction of the emission surface 52. Specifically, the surface of the Fresnel lens is the first incident surface 51, and the Fresnel lens has a convex lens portion 51a and a prism portion 51b surrounding the convex lens portion 51a. By configuring the first incident surface 51 with such a condenser lens, the first light L ₁ incident on the light guide body 50 is mainly emitted from the emission surface 52. Further, the first light L ₁ condensed by the condenser lens is converged so as to be biased to the edge portion 53 side.

Further, in the present embodiment, in the rear of the light guide 50, the lower portion of the prism portion 51b is recessed forward. Therefore, at least a part of the _first light L ₁ incident on the rear side of the prism portion 51b is emitted from the lower surface 51c of the prism portion 51b.

As described above, the first light L ₁ that enters the light guide body 50 is mainly emitted from the emission surface 52, but is also emitted from other parts of the light guide body 50. In FIG. 3B, the ratio of the first light L ₁ emitted from the light guide body 50 is schematically shown by the density of dots. A relatively large amount of the first light L ₁ is emitted from the portion where the dots are dense, as compared with the portion where the dots are sparse.

The first reflector 60 is provided below the light guide body 50. In the present embodiment, the light guide body 50 and the first reflector 60 are integrated via the connecting portion 55. Further, the first reflector 60 and the light guide body 50 are fixed to the back plate 32 by fixing the fixing member 58 integrated with the connecting portion 55 to the back plate 32.

The first reflector 60 has a concave first reflecting surface 62s that reflects the first light L ₁ emitted from the light guide body 50 forward. In this embodiment, the reflecting member 62 is provided on the front surface of the first reflector 60, and the surface of the reflecting member 62 is the first reflecting surface 62s. The first light L ₁ incident on the light guide body 50 and emitted from the emission surface 52 is emitted toward the first reflection surface 62s and is reflected forward by the first reflection surface 62s. Further, as described above, the first light L ₁ emitted from the lower surface 51c of the prism portion 51b passes through the connecting portion 55 and is reflected forward by the first reflecting surface 62s.

The first reflection surface 62s has, for example, a concave shape formed by a free-form surface based on a parabola whose opening direction is forward. More specifically, the shape of the first reflection surface 62s in the vertical cross section is a shape below the apex of a parabola whose center axis is horizontal, and the shape of the first reflection surface 62s in the horizontal cross section is , The shape includes the vertices of the parabola. However, the parabola in the vertical cross section of the first reflection surface 62s and the parabola in the horizontal cross section may be different parabola. When the first reflection surface 62s is based on a parabola in this way, it is preferable that the edge portion 53 of the light guide 50 overlaps the focus of the parabola.

The material of the first reflector 60 is not particularly limited as long as it is a member that reflects light on the first reflection surface 62s, and for example, a reflector main body made of resin or metal is mirror-finished by metal deposition or the like. The member 62 may be provided. However, from the viewpoint of forming the first reflector 60 integrally with the light guide body 50 that transmits light and the connecting portion 55, the first reflector 60 is formed by metal vapor deposition or the like on the reflector main body made of a resin having translucency. It is preferable that the reflecting member 62 is provided.

The second light source 42 is arranged in front of the first light source 41, and emits the second light L ₂ that is light emitted above the first light L ₁ . The second light L ₂ is light that is emitted above the first light L ₁ after being reflected by the first reflector 60 and becomes a part of the high beam. The second light L ₂ is partly reflected backward by the second reflector 70 and then is reflected forward by the first reflector 60, and another part is reflected by the first reflector 60 without reaching the second reflector 70. Reflected forward. In addition, as described above, a part of the _second light L ₂ reflected backward by the second reflector 70 is applied to a portion of the light guide 50 including the edge portion 53, and the second incident surface 54o. The light passes through the light guide body 50 and exits from the exit surface 52. On the other hand, the other part of the second light L ₂ passes through the front of the edge portion 53 and is reflected forward by the first reflecting surface 62s. Such a second light source 42 is, for example, an LED (Light Emitting Diode). The second light source 42 is connected to a circuit board (not shown), and can emit the second light L ₂ by feeding power from the circuit board.

The second reflector 70 has a second reflecting surface 72 that reflects part of the second light L ₂ backward, and is arranged in front of the second light source 42 and the light guide body 50. In the present embodiment, the second reflector 70 is fixed to the lower surface of the top plate 31. In addition, the second reflecting surface 72 is preferably formed so as to converge the second light L ₂ toward the edge portion 53 of the light guide body 50. It is preferable that such a second reflecting surface 72 has, for example, a concave shape formed by a free-form surface based on a parabola, and the focus of the parabola is overlapped with the edge portion 53.

The material of the second reflector 70 is not particularly limited as long as it is a member that reflects light on the second reflection surface 72. For example, the reflector main body made of resin or metal is mirror-finished by metal deposition or the like. An example thereof is one provided with a two-reflecting surface 72.

The lamp 1a is configured as described above. The lamps 1b and 1c have the same configuration except that the light distribution is different from that of the lamp 1a as described later by appropriately adjusting the shapes of the light guide 50 and the first reflection surface 62s.

Next, the emission of light by the vehicle headlamp 1 will be described.

FIG. 4A is a diagram showing a light distribution which is a part of a low beam and a high beam emitted from the lamp 1a, and FIG. 4B is a light distribution which is a part of a low beam and a high beam emitted from the lamp 1b. FIG. 4C is a diagram showing light distribution which is a part of the low beam and the high beam emitted from the lamp 1c. In FIGS. 4A to 4C, the hatched portion is the light distribution of the second light L ₂ , and the portion surrounded by a thick line below the broken line is the distribution of the first light L ₁ . Light. Therefore, the broken line is the cut line that is the upper end of the light distribution of the first light L ₁ . As shown in FIGS. 4(A) to 4(C), in the present embodiment, the light distributions of the lights emitted from the respective lamps 1a to 1c are different from each other. In each of the lamps 1a to 1c, the shapes of the light guide 50 and the first reflection surface 62s are appropriately changed, so that the light distributions of the lights emitted from the lamps 1a to 1c are different from each other. can do. The first light L ₁ emitted from the lamps 1a to 1c having different light distributions combines the low beam light distributions, and the first light L ₁ emitted from the lamps 1a to 1c having different light distributions, respectively. High-beam light distribution is combined by the second light L ₂ . The low beam lighting and the high beam lighting will be described in more detail below.

<When low beam is on>
The low beam is emitted by the light from the first light source 41 in each of the lamps 1a to 1c. As in the example of the lamp 1a shown in FIG. 2, the first light L ₁ emitted from each of the first light sources 41 passes through the light guide body 50 and is forwarded by the first reflecting surface 62s of the first reflector 60. It is reflected, passes through the front cover 12, and exits. At this time, as described above, the first light L ₁ is converged toward the emission surface 52 and emitted from the emission surface 52. Therefore, the emission surface 52 can be regarded as a pseudo light source.

In addition, the emission position of the first light L _{1 on} the emission surface 52 has the edge portion 53 as the front end, and the first light L ₁ is emitted from a position rearward of the edge portion 53 toward the first reflection surface 62s. .. In the case of a parabolic reflector having a shape that hangs down from above, like the first reflector 60, as the emission position of light from the emission surface 52 becomes rearward of the edge portion 53, the light is reflected by the first reflection surface 62s and then irradiated. The direction is downward. Therefore, the edge portion 53 forms a cut line which is the upper end of the light distribution of the low beam, and as shown in FIGS. 4(A) to 4(C), the first light L ₁ is more than the cut line shown by the broken line. Is also irradiated downward.

<When the high beam is on>
In the present embodiment, when the high beam lights, in addition to the operation at the time of the low beam lights, is from the second light source 42 in each of the lamp 1a~1c emit second light L _2. As in the example of the lamp 1 a shown in FIG. 2, the second light L ₂ emitted from each of the second light sources 42 is reflected forward by the first reflecting surface 62 s of the first reflector 60 and the front cover 12 is blocked. It is transmitted and emitted. At this time, a part of the second light L ₂ passes through the front of the edge portion 53 of the light guide 50 and reaches the first reflection surface 62s, so that the part of the _second light L ₂ is reflected by the first reflection surface 62s. After being reflected by the surface 62s, it tends to be reflected above the first light L ₁ . Therefore, in the present embodiment, the second light L ₂ is a light that is emitted above the first light L ₁ after being reflected by the first reflector 60 and becomes a part of the high beam.

Further, in the vehicle headlamp 1, as described above, a part of the second light L _{2 is applied to} the portion of the light guide body 50 including the edge portion 53 and is guided from the second incident surface 54o. It is emitted from the emission surface 52 through the body 50 and is reflected forward by the first reflection surface 62s. As described above, part of the second light L ₂ also passes rearward from the edge portion 53 of the light guide body 50 and is reflected by the first reflecting surface 62s, and thus is shown in FIGS. 4(A) to 4(C). Thus, the upper part of the light distribution of the first light L ₁ and the lower part of the light distribution of the second light L ₂ overlap each other. That is, it is possible to suppress the formation of a gap between the light distribution of the light from the first light source 41 and the light distribution of the light from the second light source 42, which emit light in different directions. Therefore, when the first light L ₁ and the second light L ₂ are combined into a high beam, it is possible to suppress the formation of a gap in the light distribution of the high beam. Thus, as shown in FIGS. 4(A) to 4(C), a high-beam light distribution in which there is no gap between the light distribution of the first light L ₁ and the light distribution of the second light L ₂ is formed. To be done.

Note that, as described above, when the first reflection surface 62s is based on a parabola, the edge portion 53 of the light guide body 50 preferably overlaps the focus of the parabola. In this case, the light reflected by the first reflection surface 62s after passing through the vicinity of the edge portion 53 becomes substantially parallel light. Therefore, the first light L1' and the second light L2' illustrated in FIG. 2 are substantially parallel lights.

Further, in the present embodiment, since the light guide 50 and the first reflector 60 are integrated, the relative positions of the light guide 50 and the first reflecting surface 62s are fixed, so that the desired light distribution is obtained. It becomes easy to arrange the light guide body 50 and the first reflector 60 in such a manner.

Further, in the present embodiment, since the first incident surface 51 of the light guide body 50 is configured by the above-described condenser lens, the first light L ₁ can easily reach the first reflection surface 62s, It becomes easier to effectively use the first light L ₁ .

Further, in the present embodiment, since the second reflector 70 is provided, apt to reach the second light L ₂ to the first reflective surface 62s, easily by effectively using the second light L _2. Further, since the second reflector 70 is provided, the light guide body 50, the second light source 42, and the first light source 41 arranged behind the second light source 42 can be hidden by the second reflector 70, and thus the vehicle The designability of the headlight 1 can be improved. Further, the second light L ₂ is converged by the second reflector 70 toward the edge portion 53 of the light guide 50, so that the second light L ₂ is in the vicinity of the cut line of the light distribution of the first light L ₁ , that is, the first light. It becomes easy to collect the second light L ₂ at a position where the light distribution of L _{1 and} the light distribution of the second light L ₂ overlap.

Although the present invention has been described above by taking the above embodiment as an example, the present invention is not limited to these.

For example, in the above embodiment, the second light source 42 is a light source that emits light that becomes a part of the high beam. However, the present invention is not limited to this. For example, in the above embodiment, without being second light L ₂ is emitted to be a part of the high beam from the second light source 42, the second light L ₂ which is a light daytime lighting may be emitted. Further, in this case, the total luminous flux amount of the second light L ₂ emitted from the second light source 42 is smaller than the total luminous flux amount of the second light L ₂ which becomes the high beam. May be dimmed. Also, the second light source 42 may be a light source for an overhead sign.

Further, in the above-described embodiment, the vehicle headlamp has the three lamps 1a to 1c, but the number of the lamps is not limited to three, and may be four or more and may be two or less. Further, in the above-described embodiment, the lamps 1a to 1c are arranged in the left-right direction, but the arrangement of the plurality of lamps is not limited to this, and may be arranged in the up-down direction, may be arranged obliquely, or in a U shape. You can line up.

Further, in the above embodiment, an example in which the light distributions of the low beam and the high beam are combined by the light from the three lamps 1a to 1c has been described. However, the light distribution of the low beam and the high beam may be combined light distribution of light from a plurality of lamp units, or may be formed by light from one lamp unit.

Further, in the above-described embodiment, an example in which the first reflector 60 and the light guide body 50 are integrated has been described. However, the first reflector 60 and the light guide body 50 may be separate bodies, and in this case, the connecting portion 55 is not necessary.

Further, in the above embodiment, an example in which the second reflector 70 is provided has been described, but the second reflector 70 is not an essential component.

According to the present invention, there is provided a vehicle headlamp capable of suppressing the formation of a gap in the light distribution of light from two light sources that irradiate light in mutually different directions, and the field of vehicle headlamps for automobiles and the like. Is available at.

1... Vehicle headlamps 1a to 1c... Lamp 10... Housing LU... Lamp unit 30... Support member 31... Top plate 32... Back plate 41... First light source 42... Second light source 50... Light guide 51... First incident surface 52... Emission surface 53... Edge 54i... Internal reflection surface 54o... Second Incident surface 60... 1st reflector 62s... 1st reflective surface 70... 2nd reflector 72... 2nd reflective surface L ₁ ... 1st light L ₂ ... 2nd light

Claims (5)

A first light source that emits a first light that becomes a low beam;
A light guide through which the first light is transmitted,
A first reflector having a concave first reflecting surface that reflects the first light emitted from the light guide body forward,
A second light source that is disposed in front of the first light source and that emits a second light that is a light emitted above the first light;
Equipped with
The light guide body has a first incident surface on which the first light enters, an emission surface that emits the first light incident on the light guide toward the first reflection surface, and the emission surface. An inner reflection surface that totally reflects the first light that is incident on the light guide and shares the front edge of the second reflection surface, and a second incidence surface that is an outer surface of the inner reflection surface.
A part of the second light is applied to a portion of the light guide including the edge portion, and is emitted from the second incident surface, the light guide, and the emission surface. Reflected forward on the reflective surface,
The other part of the second light passes through the front of the edge portion and is reflected forward by the first reflecting surface. The vehicle headlamp according to claim 1, wherein the light guide body and the first reflector are integrated. The vehicle according to claim 1 or 2, wherein the first incident surface of the light guide body is a surface of a condenser lens that converges the first light in the direction of the emission surface. Headlight. 4. A second reflector having a second reflecting surface that reflects at least a part of the second light backward is provided in front of the second light source and the light guide body. The vehicle headlight according to item 1. The vehicle headlamp according to claim 4, wherein the second reflecting surface is formed so as to converge the second light toward the edge portion.

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