Asymmetric bidirectional polarized mirror front lamp and asymmetric bidirectional polarized projection method

Abstract

An asymmetric bidirectional polarized mirror front lamp, comprising a lens member, a light source member and a heat sink, the heat sink being used for dissipating heat, and the light source member being used for emitting light rays towards the lens member. The lens member comprises a left reflective surface, a right reflective surface and a transmissive surface, the left reflective surface being used for reflecting light rays to form a left reflective area, the right reflective surface being used for reflecting light rays to form a first right reflective area and a second right reflective area, and the reflection angle of the first right reflective area being greater than the reflection angle of the second right reflective area. The transmissive surface is used for reflecting light rays to form a transmissive area, the reflection angle of the transmissive area being smaller than the reflection angle of the second right reflective area. The present invention achieves asymmetric and bidirectional light ray projection, increases the polarization angle and the light coverage range, so as to improve the light-emitting efficiency, and reduce facial shadows of users, such that the users can obtain better facial lighting effects whether they are leaning forward, slightly leaning forward, or standing upright, thereby enhancing the fill-in lighting effects of mirror front lamps.

Description

Asymmetric bidirectional polarized mirror spotlight and asymmetric bidirectional polarized light projection method Technical Field

[0001] The patent of this invention relates to the technical field of asymmetric bidirectional polarized mirror front spotlights, specifically, to an asymmetric bidirectional polarized mirror front spotlight and an asymmetric bidirectional polarized projection method. Background Art

[0002] The market demand for mirror spotlights is to achieve a polarized light effect; in this way, when a person stands in front of a sink, the light reflected from the mirror to the sink and then reflected back can reduce the shadow on the face. At the same time, when the person leans forward and approaches the mirror, the light reflected from the mirror can illuminate the face.

[0003] For example, a prior patent with publication number CN111486373B discloses a spectroscopic spotlight, comprising: a shell having a shell opening at its end and an adjustment member mounting portion on its side wall; a light source assembly for emitting a primary light beam; a light beam splitter mounted in a light beam splitting region inside the shell; after the primary light beam passes through the light beam splitting region, a first light beam and a second light beam with different emission directions are formed; a diffuser disposed on an emission light path of the second light beam; the diffuser is used to scatter the second light beam; the adjustment member mounting portion is disposed between the light beam splitting region and the shell opening and is used to mount a light adjustment member; the first light beam is emitted from the shell opening; and the second light beam is emitted after passing through the diffuser.

[0004] In the existing technology, spotlights require two optical elements to achieve bidirectional polarization of light projection, which is costly and has a complex structure. At the same time, the use of polarizers cannot achieve polarization at a larger angle, resulting in poor fill light effect of the spotlight in front of the mirror. Summary of the Invention

[0005] The purpose of the present invention is to provide an asymmetric bidirectional polarized mirror spotlight and an asymmetric bidirectional polarized light projection method, aiming to solve the problem of poor fill light effect of the mirror spotlight in the prior art.

[0006] The present invention is implemented as follows: an asymmetric bidirectional polarized mirror front spotlight includes a lens component, a light source component and a radiator, the light source component is installed on the radiator, the radiator is used for heat dissipation, the light transmitting mirror is embedded in the radiator and the light transmitting mirror is arranged corresponding to the light source component, and the light source component is used to emit light toward the light transmitting mirror; the lens component includes a left reflecting surface, a right reflecting surface and a transmitting surface, the left reflecting surface is used to reflect light to form a left reflecting area, the left reflecting area reflects light in the direction toward the human face, the right reflecting surface is used to reflect light to form a first right reflecting area and a second right reflecting area, the first right reflecting area and the second right reflecting area respectively reflect light in the direction of the mirror surface, and the reflection angle of the first right reflecting area is greater than the reflection angle of the second right reflecting area; the transmitting surface is used to reflect light to form a transmitting area, the transmitting area reflects light in the direction toward the mirror surface, and the reflection angle of the transmitting area is smaller than the reflection angle of the second right reflecting area.

[0007] Furthermore, when the user stands upright, the face is in the standing face area, and when the user stands leaning forward, the face is in the leaning forward face area; the left reflection area and the first right reflection area respectively cover the standing face area, and the second right reflection area and the transmission area respectively cover the leaning forward face area.

[0008] Furthermore, the transmission area reflects the light to the mirror surface, then to the wash basin, and then to the forward-leaning facial area.

[0009] Furthermore, along the X direction, the lens component forms an X-section, the light source component forms polarization in the X-section, the transmission surface is arranged corresponding to the X-section, and the transmission surface is arranged gradually inclined downward in the direction away from the light source component; along the Y direction, the lens body forms a Y-section, the lens body forms a non-polarized surface in the Y-section, the light source component and the non-polarized surface are arranged correspondingly, and the light source component directly projects light to the non-polarized surface, and the non-polarized surface is arranged in a non-polarized state.

[0010] Furthermore, the asymmetric bidirectional polarized mirror spotlight includes a bracket, which is arranged inside the radiator, and the bracket has a bracket groove, and the light source component is arranged in the bracket groove; the bracket groove is arranged through, and the lens component has a light-entering surface, and the light-entering surface is arranged opposite to the bracket groove; the radiator has a heat dissipation surface and various heat dissipation fins, and the heat dissipation surface and the light source component are arranged in a flat and conflicting manner, and the heat dissipation surface is used to transfer the heat of the light source component, and the various heat dissipation fins are arranged in a corresponding manner at intervals, and the heat dissipation fins and the heat dissipation surface are arranged in a vertical corresponding manner.

[0011] Furthermore, the asymmetric bidirectional polarized mirror spotlight includes a lampshade, and the radiator, the lens component and the light source component are respectively arranged inside the lampshade; the lampshade includes a cover plate, and the cover plate is arranged below the lens component, and the cover plate is arranged in an arc shape. The light part of the left reflection area is arranged to overlap with the cover plate, and the cover plate is used to block light.

[0012] Furthermore, the lens element has a textured surface, which is used to enhance the uniformity of light. The light reflected by the left reflection area, the first right reflection area, the second right reflection area and the transmission area all pass through the textured surface; the textured surface has multiple textured areas, each textured area is flatly arranged in sequence, and the textured areas are arranged in a polygonal shape.

[0013] Furthermore, the left reflecting surface reflects light to form a left light spot, and the right reflecting surface reflects light to form a right light spot. The left light spot reflects light in the direction toward the face, and the right light spot reflects light in the mirror direction. The right light spot and the left light spot are arranged asymmetrically, and the light emitting range of the right light spot is larger than the light emitting range of the left light spot.

[0014] An asymmetric bidirectional polarized light projection method includes a lens component and a light source component, wherein the light source component is used to emit light toward the light-transmitting mirror, and the lens component includes a left reflective surface, a right reflective surface, and a transmissive surface. The specific steps are as follows:

[0015] (1) Define the projection direction as left-direction projection light and right-direction projection light, wherein the left-direction projection light is along the direction toward the mirror surface, and the right-direction projection light is along the direction toward the face;

[0016] (2) The left reflective surface is used to reflect light and project light along the right direction, and the right reflective surface and the transmissive surface are used to reflect light and project light along the left direction respectively;

[0017] (3) The right reflective surface is used to reflect light to form a first right reflective area and a second right reflective area, the first right reflective area and the second right reflective area respectively project light to the mirror surface in the left direction, and the reflection angle of the first right reflective area is greater than the reflection angle of the second right reflective area; the transmission surface is used to project light in the left direction to form a transmission area, and the reflection angle of the second right reflective area is greater than the reflection angle of the transmission area;

[0018] (4) The left-direction projected light and the right-direction projected light are projected synchronously and the light projection angles are arranged asymmetrically.

[0019] Furthermore, when the user stands upright, the face is in the standing face area, and when the user stands leaning forward, the face is in the leaning forward face area; the first right reflection area is directly projected to the standing face area through mirror reflection, and the second right reflection area is directly projected to the leaning forward face area through mirror reflection; the right-direction projected light is synchronously projected to the standing face area; the transmission area projects light through mirror reflection to the washbasin and then reflected to the leaning forward face area, and the transmission area and the second right reflection area are synchronously projected to the leaning forward face area.

[0020] Compared with the prior art, the asymmetric bidirectional polarized mirror spotlight and the asymmetric bidirectional polarized projection method provided by the present invention realize the heat dissipation of the mirror spotlight and enhance the service life of the mirror spotlight under the action of the radiator. Specifically, when the mirror spotlight is in use, the light synchronously reflected by the left reflection area and the first right reflection area is used to fill in the face of a user standing upright, and the light synchronously reflected by the second right reflection area and the transmission area is used to fill in the face of a user standing leaning forward; in this way, the mirror spotlight realizes bidirectional projection of light for fill in the light and the bidirectional light of the mirror spotlight is arranged asymmetrically, which increases the polarization angle and light coverage range of the mirror spotlight, improves the light output efficiency of the mirror spotlight, realizes the reflection of light at a larger angle, reduces the shadow on the user's face, and enables the user to obtain good facial fill in effect regardless of leaning forward, leaning forward a short distance, or standing upright, thereby enhancing the fill in effect of the mirror spotlight. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] FIG1 is a schematic diagram of an X-direction cross-section of an asymmetric bidirectional polarized mirror spotlight provided by the present invention;

[0022] FIG2 is a schematic diagram of a cross-sectional light beam in the X direction of an asymmetric bidirectional polarized mirror spotlight provided by the present invention;

[0023] FIG3 is a schematic diagram of a cross-section in the Y direction of the asymmetric bidirectional polarized mirror spotlight provided by the present invention;

[0024] FIG4 is a schematic diagram of light in use of the asymmetric bidirectional polarized mirror spotlight provided by the present invention;

[0025] FIG5 is a perspective schematic diagram of an asymmetric bidirectional polarized mirror spotlight provided by the present invention;

[0026] FIG6 is a perspective schematic diagram of a lens component of an asymmetric bidirectional polarized mirror spotlight provided by the present invention;

[0027] FIG7 is a schematic flow chart of an asymmetric bidirectional polarized light projection method provided by the present invention;

[0028] [Corrected 16.12.2024 in accordance with Article 91]

[0029] [Corrected 16.12.2024 in accordance with Article 91] DETAILED DESCRIPTION

[0030] In order to make the purpose, technical solutions and advantages of the present invention more clearly understood, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.

[0031] The implementation of the present invention is described in detail below with reference to specific embodiments.

[0032] The same or similar numbers in the drawings of this embodiment correspond to the same or similar parts; in the description of the present invention, it should be understood that if the terms "upper", "lower", "left", "right", etc. indicate the orientation or position relationship, they are based on the orientation or position relationship shown in the drawings. This is only for the convenience of describing the present invention and simplifying the description, and does not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operate in a specific orientation. Therefore, the terms describing the position relationship in the drawings are only used for illustrative purposes and cannot be understood as limiting this patent. For ordinary technicians in this field, the specific meanings of the above terms can be understood according to specific circumstances.

[0033] [Corrected 16.12.2024 according to Rule 91] Referring to Figures 1-7, there are preferred embodiments of the present invention.

[0034] An asymmetric bidirectional polarized mirror front spotlight includes a lens component 1, a light source component 2 and a radiator 3. The light source component 2 is installed on the radiator 3, which is used for heat dissipation. The radiator 3 is embedded in the light-transmitting mirror and the light-transmitting mirror and the light-source component 2 are arranged correspondingly. The light source component 2 is used to emit light toward the light-transmitting mirror; the lens component 1 includes a left reflecting surface 11, a right reflecting surface 12 and a transmitting surface 13. The left reflecting surface 11 is used to reflect light to form a left reflecting area 14, and the left reflecting area 14 reflects light in the direction toward the human face; the right reflecting surface 12 is used to reflect light to form a first right reflecting area 17 and a second right reflecting area 18, and the first right reflecting area 17 and the second right reflecting area 18 respectively reflect light in the direction of the mirror surface, and the reflection angle of the first right reflecting area 17 is greater than the reflection angle of the second right reflecting area 18; the transmitting surface 13 is used to reflect light to form a transmitting area 15, and the transmitting area 15 reflects light in the direction toward the mirror surface, and the reflection angle of the transmitting area 15 is smaller than the reflection angle of the second right reflecting area 18.

[0035] The above-mentioned asymmetric bidirectional polarized mirror spotlight, under the action of the radiator 3, realizes the heat dissipation of the mirror spotlight and enhances the service life of the mirror spotlight. Specifically, when the mirror spotlight is in use, the light synchronously reflected by the left reflection area 14 and the first right reflection area 17 is used to fill in the face of the user standing upright, and the light synchronously reflected by the second right reflection area 18 and the transmission area 15 is used to fill in the face of the user standing leaning forward; in this way, the mirror spotlight realizes bidirectional projection of light for fill in the light and the bidirectional light of the mirror spotlight is arranged asymmetrically, which increases the polarization angle and light coverage range of the mirror spotlight, improves the light output efficiency of the mirror spotlight, realizes the reflection of light at a larger angle, reduces the shadow on the user's face, and enables the user to obtain good facial fill in light effect regardless of leaning forward, leaning forward a short distance, or standing upright, thereby enhancing the fill in light effect of the mirror spotlight.

[0036] When the user stands upright, the face is in the standing face area, and when the user stands leaning forward, the face is in the leaning forward face area; the left reflection area 14 and the first right reflection area 17 respectively cover the standing face area, and the second right reflection area 18 and the transmission area 15 respectively cover the leaning forward face area.

[0037] In this way, the double light of the left reflection area 14 and the first right reflection area 17 covers the standing face area, and the double light of the second right reflection area 18 and the transmission area 15 covers the leaning face area, reducing the shadow on the user's face, so that the user can obtain good facial fill light effect regardless of leaning forward, leaning forward a short distance, or standing upright.

[0038] The transmission area 15 reflects the light to the mirror surface, then to the sink, and then to the forward-leaning facial area; the light is reflected from the mirror surface and then reflected back through the sink to illuminate the human face. Compared with the light directly irradiating the human face, it has a larger angle and can reduce the shadow on the user's face, thereby improving the facial fill light effect.

[0039] Along the X direction, the lens component 1 forms an X-section, the light source component 2 forms polarized light in the X-section, the transmission surface 13 is arranged corresponding to the X-section, and the transmission surface 13 is arranged gradually tilted downward in the direction away from the light source component 2; so that the transmission surface 13 forms a transmission area 15, realizes the coordination between the transmission area 15 and the second right reflection area 18, and improves the facial fill light effect.

[0040] Along the Y direction, the lens body forms a Y section, and the lens body forms a non-polarizing surface 16 in the Y section. The light source 2 is arranged corresponding to the non-polarizing surface 16, and the light source 2 directly projects light to the non-polarizing surface 16, and the non-polarizing surface 16 is arranged in a non-polarized state.

[0041] In this way, in the Y section, under the action of the non-polarizing surface 16, the projected light is not polarized, thereby achieving control over the width of the light spot formed by the light.

[0042] That is, the width of the projected light spot is controlled according to the cross-sectional width of the non-polarizing surface 16 , and the cross-sectional width of the non-polarizing surface 16 is prefabricated according to the width of the projected light spot before leaving the factory.

[0043] The asymmetric bidirectional polarized mirror spotlight includes a bracket 4, which is arranged inside the radiator 3. The bracket 4 has a bracket groove, and the light source 2 is installed in the bracket groove. Under the action of the bracket 4, the setting of the light source 2 is realized, and under the action of the bracket groove, a restriction effect is exerted on the light source 2 to ensure the stability of the setting of the light source 2.

[0044] The frame groove is arranged through, and the lens component 1 has a light-incoming surface, which is arranged opposite to the frame groove; this facilitates the light source component 2 to project light toward the lens component 1 and facilitates the alignment of the light source component 2 and the lens component 1.

[0045] The frame grooves are arranged in a quadrilateral shape, or in a diamond shape, which restricts the four sides of the light source component 2 and improves the stability of the light source component 2.

[0046] The radiator 3 has a heat dissipation surface and various heat dissipation fins. The heat dissipation surface is arranged flatly and in conflict with the light source component 2. The heat dissipation surface is used to transfer the heat of the light source component 2. The heat dissipation fins are arranged at intervals and in correspondence with each other. The heat dissipation fins and the heat dissipation surface are arranged vertically and in correspondence. Under the action of each heat dissipation fin, the heat dissipation surface is cooled, thereby cooling the power supply component and improving the service life of the power supply component.

[0047] The asymmetric bidirectional polarized mirror spotlight comprises a lampshade 5, a heat sink 3, a lens component 1 and a light source component 2 which are respectively arranged inside the lampshade 5, thereby realizing the assembly of the mirror spotlight.

[0048] The lampshade 5 includes a cover plate 51, which is arranged below the lens member 1. The cover plate 51 is arranged in an arc shape, and the light portion of the left reflection area 14 is arranged to overlap with the cover plate 51. The cover plate 51 is used to block the light. In this way, since the left reflection area 14 is directly projected onto the user's face, under the action of the cover plate 51, the polarization angle of the left reflection area 14 is prevented from being too large to cause dazzle to the user, thereby ensuring the comfort of using the spotlight in front of the mirror.

[0049] The lampshade 5 includes a cover platform 52, which is used to support the lens component 1. The cover platform 52 and the bracket 4 clamp the lens component 1. Under the cooperation of the cover platform 52 and the bracket 4, the stability of the lens component 1 is enhanced.

[0050] The lens component 1 has a textured surface 19, which is used to enhance the uniformity of light. The light reflected by the left reflection area 14, the first right reflection area 17, the second right reflection area 18 and the transmission area 15 all pass through the textured surface 19; under the action of the textured area, the uniformity of the projected light is enhanced, thereby improving the facial fill light effect of the front mirror spotlight.

[0051] The textured surface 19 has a plurality of textured areas, each of which is tiled and arranged in sequence, and the textured areas are arranged in a polygonal shape; this plays a role in light uniformity, thereby improving the facial fill light effect of the front mirror spotlight.

[0052] The left reflecting surface 11 reflects light to form a left light spot, and the right reflecting surface 12 reflects light to form a right light spot. The left light spot reflects light in the direction toward the face, and the right light spot reflects light in the mirror direction. The right light spot and the left light spot are arranged asymmetrically, and the light emitting range of the right light spot is larger than that of the left light spot.

[0053] In this way, the left light spot is projected directly onto the user's face, limiting the range of the left light spot, avoiding direct exposure to the user's eyes, reducing glare, and ensuring the comfort of using the spotlight in front of the mirror; the light output range of the right light spot is reflected by the mirror, and the light output angle of the right light spot is increased again, ensuring full fill light on the user's face and reducing the shadow on the user's face.

[0054] The asymmetric bidirectional polarized light projection method includes a lens component 1 and a light source component 2. The light source component 2 is used to emit light toward the light-transmitting mirror. The lens component 1 includes a left reflective surface 11, a right reflective surface 12, and a transmissive surface 13. The specific steps are as follows:

[0055] (1) Define the projection direction as left-direction projection light and right-direction projection light. The left-direction projection light is along the direction toward the mirror, and the right-direction projection light is along the direction toward the face.

[0056] (2) The left reflective surface 11 is used to reflect light and project light in the right direction, and the right reflective surface 12 and the transmissive surface 13 are used to reflect light and project light in the left direction respectively;

[0057] (3) The right reflective surface 12 is used to reflect light to form a first right reflective area 17 and a second right reflective area 18. The first right reflective area 17 and the second right reflective area 18 respectively project light to the mirror surface in the left direction, and the reflection angle of the first right reflective area 17 is greater than the reflection angle of the second right reflective area 18; the transmission surface 13 is used to project light in the left direction to form a transmission area 15. The reflection angle of the second right reflective area 18 is greater than the reflection angle of the transmission area 15;

[0058] (4) The left-direction projection light and the right-direction projection light are synchronously projected and the light projection angles are arranged asymmetrically.

[0059] The above-mentioned asymmetric bidirectional polarized light projection method first determines the bidirectional projection light, projects it to the mirror surface in the left direction and then reflects it at least once, and finally projects it to the user's face for fill-in light, and projects the light in the right direction directly in the direction of the face for fill-in light; then, with the cooperation of the first right reflection area 17, the second right reflection area 18 and the transmission area 15, multi-angle projection of light is achieved, and the angle of light projection is increased; in this way, the spotlight in front of the mirror projects light in a bidirectional and asymmetric manner, increases the polarization angle and light coverage range of the spotlight in front of the mirror, improves the light output efficiency of the spotlight in front of the mirror, realizes the reflection of light at a larger angle, reduces the shadow on the user's face, and enables the user to obtain good facial fill-in light effect regardless of leaning forward, leaning forward a short distance, or standing upright, thereby enhancing the fill-in light effect of the spotlight in front of the mirror.

[0060] When the user stands upright, the face is in the standing face area, and when the user stands leaning forward, the face is in the leaning forward face area; the first right reflection area 17 is directly projected to the standing face area through mirror reflection, and the second right reflection area 18 is directly projected to the leaning forward face area through mirror reflection; the right-direction projected light is synchronously projected to the standing face area; the transmission area 15 projects light, which is reflected by the mirror to the washbasin and then reflected to the leaning forward face area, and the transmission area 15 and the second right reflection area 18 are synchronously projected to the leaning forward face area.

[0061] In this way, the double light of the left reflection area 14 and the first right reflection area 17 covers the standing face area, and the double light of the second right reflection area 18 and the transmission area 15 covers the leaning face area, reducing the shadow on the user's face, so that the user can obtain good facial fill light effect regardless of leaning forward, leaning forward a short distance, or standing upright.

[0062] In addition, the transmission area 15 reflects the light to the mirror surface, then to the sink, and then to the forward-leaning facial area; the light is reflected from the mirror surface and then reflected back through the sink to illuminate the human face. Compared with the light directly irradiating the human face, it has a larger angle and can reduce the shadow on the user's face, thereby improving the facial fill light effect.

[0063] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. Asymmetric bidirectional polarized mirror front spotlight, characterized by: It includes a lens component, a light source component and a heat sink, the light source component is installed on the heat sink, the heat sink is used for heat dissipation, the light-transmitting mirror is embedded in the heat sink and the light-transmitting mirror is arranged corresponding to the light source component, and the light source component is used for emitting light toward the light-transmitting mirror; the lens component includes a left reflecting surface, a right reflecting surface and a transmitting surface, the left reflecting surface is used for reflecting light to form a left reflecting area, the left reflecting area reflects light in a direction toward a face, the right reflecting surface is used for reflecting light to form a first right reflecting area and a second right reflecting area, the first right reflecting area and the second right reflecting area reflect light in a mirror direction respectively, and the reflection angle of the first right reflecting area is greater than the reflection angle of the second right reflecting area; the transmitting surface is used for reflecting light to form a transmitting area, the transmitting area reflects light in a direction toward the mirror, and the reflection angle of the transmitting area is less than the reflection angle of the second right reflecting area.

2. The asymmetric bidirectional polarized mirror spotlight according to claim 1, characterized in that: When the user stands upright, the face is in the standing face area, and when the user stands leaning forward, the face is in the leaning forward face area; the left reflection area and the first right reflection area respectively cover the standing face area, and the second right reflection area and the transmission area respectively cover the leaning forward face area.

3. The asymmetric bidirectional polarized mirror spotlight according to claim 2, characterized in that: The transmission area reflects light to the mirror surface, then reflects it to the wash basin, and then reflects it to the forward-leaning facial area.

4. The asymmetric bidirectional polarized mirror spotlight according to claim 3, characterized in that: Along the X direction, the lens component forms an X-section, the light source component forms polarization in the X-section, the transmission surface is arranged corresponding to the X-section, and the transmission surface is arranged gradually inclined downward in the direction away from the light source component; along the Y direction, the lens body forms a Y-section, the lens body forms a non-polarized surface in the Y-section, the light source component is arranged corresponding to the non-polarized surface, and the light source component directly projects light to the non-polarized surface, and the non-polarized surface is arranged in a non-polarized state.

5. The asymmetric bidirectional polarized mirror spotlight according to any one of claims 1 to 4, characterized in that: The asymmetric bidirectional polarized mirror spotlight includes a bracket, which is arranged inside the radiator, and the bracket has a bracket groove, and the light source component is installed in the bracket groove; the bracket groove is arranged through, and the lens component has a light-incoming surface, and the light-incoming surface is arranged opposite to the bracket groove; the radiator has a heat dissipation surface and various heat dissipation fins, and the heat dissipation surface and the light source component are arranged in a flat and conflicting manner, and the heat dissipation surface is used to transfer the heat of the light source component, and the heat dissipation fins are arranged in a corresponding interval, and the heat dissipation fins are arranged vertically corresponding to the heat dissipation surface.

6. The asymmetric bidirectional polarized mirror spotlight according to any one of claims 1 to 4, characterized in that: The asymmetric bidirectional polarized mirror spotlight includes a lampshade, and the heat sink, the lens component and the light source component are respectively arranged inside the lampshade; the lampshade includes a cover plate, and the cover plate is arranged below the lens component, and the cover plate is arranged in an arc shape. The light part of the left reflection area is arranged to overlap with the cover plate, and the cover plate is used to block light.

7. The asymmetric bidirectional polarized mirror spotlight according to any one of claims 1 to 4, characterized in that: The lens element has a textured surface, and the textured surface is used to enhance the uniformity of light. The light reflected by the left reflection area, the first right reflection area, the second right reflection area and the transmission area all pass through the textured surface; the textured surface has multiple textured areas, each textured area is flatly arranged in sequence, and the textured areas are arranged in a polygonal shape.

8. The asymmetric bidirectional polarized mirror spotlight according to any one of claims 1 to 4, characterized in that: The left reflecting surface reflects light to form a left light spot, and the right reflecting surface reflects light to form a right light spot. The left light spot reflects light in a direction toward the face, and the right light spot reflects light in a mirror direction. The right light spot is arranged asymmetrically with the left light spot, and a light emitting range of the right light spot is greater than that of the left light spot.

9. Asymmetric bidirectional polarized light projection method, characterized in that: It includes a lens component and a light source component, the light source component is used to emit light toward the light-transmitting mirror, the lens component includes a left reflective surface, a right reflective surface and a transmissive surface, and the specific steps are as follows: (1) Define the projection direction as left-direction projection light and right-direction projection light, wherein the left-direction projection light is along the direction toward the mirror surface, and the right-direction projection light is along the direction toward the face; (2) The left reflective surface is used to reflect light and project light along the right direction, and the right reflective surface and the transmissive surface are used to reflect light and project light along the left direction respectively; (3) The right reflection surface is used to reflect light to form a first right reflection area and a second right reflection area, the first right reflection area and the second right reflection area respectively project light to the mirror surface in the left direction, and the reflection angle of the first right reflection area is greater than the reflection angle of the second right reflection area; the transmission surface is used to project light in the left direction to form a transmission area, and the reflection angle of the second right reflection area is greater than the reflection angle of the transmission area; (4) The left-direction projected light and the right-direction projected light are projected synchronously and the light projection angles are arranged asymmetrically.

10. The asymmetric bidirectional polarized light projection method according to claim 9, characterized in that: When the user stands upright, the face is in the standing face area, and when the user stands leaning forward, the face is in the leaning forward face area; the first right reflection area is directly projected to the standing face area through mirror reflection, and the second right reflection area is directly projected to the leaning forward face area through mirror reflection; the right-direction projected light is synchronously projected to the standing face area; the transmission area projects light through mirror reflection to the washbasin and then to the leaning forward face area, and the transmission area and the second right reflection area are synchronously projected to the leaning forward face area.

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