Outdoor building lighting structure and lighting lamp

Abstract

The utility model provides an outdoor building lighting structure and a lighting lamp, the outdoor building lighting structure comprises a lamp carrier and spreadlight lenses, the carrier lamp is provided with an irradiation cavity, the spreadlight lenses are arranged in the irradiation cavity, and a first irradiation area, a second irradiation area and a third irradiation area are sequentially arranged in the lamp carrier. A first polarization angle is formed by the spreadlight lens in the first irradiation area, a second polarization angle is formed by the spreadlight lens in the second irradiation area, and a third polarization angle is formed by the spreadlight lens in the third irradiation area; the second polarization angle is perpendicular to the second irradiation area, and the inclination directions of the first polarization angle and the third polarization angle are opposite; by changing the first polarization angle, the second polarization angle and the third polarization angle, the lighting effect of the whole wall surface can be enhanced through angle changes when the lamp carrier is attached to the mounting wall surface, and therefore the requirement for uniform lighting of the wall surface is met.

Description

TECHNICAL FIELD

[0001] The present disclosure relates to the technical field of lighting, in particular to an outdoor building lighting structure and a lighting lamp. BACKGROUND

[0002] In modern urban construction, outdoor lighting brightening projects play an increasingly important role. For modern urban buildings, outdoor lighting brightening projects are not only functional requirements, but also important means to improve the appearance of buildings and cities. In view of this, many manufacturers have developed building lighting equipment to meet this demand. A new type of building brightness adjustable lighting equipment.

[0003] For example, Chinese patent document CN215722626U discloses a new type of building brightness adjustable lighting equipment, which comprises a lampshade, a focusing mirror and an energy component. The focusing mirror is located on the inner side of the lampshade and is assembled by a plurality of flexible mirrors. The energy component is located on the other side of the lampshade and comprises an upper shell, a lower shell and a plurality of mobile power supplies. The mobile power supplies are located in the cavity formed by the upper shell and the lower shell. A plurality of guide plates are arranged in the lower shell, and a mobile switch is arranged on the outer side of the lower shell, so as to adjust the illumination range and the lighting brightness according to the working requirements.

[0004] However, the design of the above-mentioned new type of building brightness adjustable lighting equipment has the following problems:

[0005] The above-mentioned new type of building brightness adjustable lighting equipment can change the illumination angle of the lampshade by the first connecting frame and the second connecting frame, thereby changing the opening angle of the focusing mirror and changing the propagation direction of the light. However, when the focusing mirror is rotated to change the opening angle, the lampshade can only illuminate at one angle, and the illumination angle of the lampshade cannot be expanded, so that the lamp is always fixed at one polarization angle, the brightening area of the building cannot be increased, and the brightening effect of the building is limited, so that some artistic buildings cannot achieve the overall brightening effect. Utility model content

[0006] The purpose of the present disclosure is to overcome the shortcomings in the prior art and provide an outdoor building lighting structure and a lighting lamp that can enhance the lighting effect of the wall surface and achieve uniform brightening of the wall surface.

[0007] The purpose of the present disclosure is achieved by the following technical solutions:

[0008] An outdoor building lighting structure comprises a lamp carrier and polarized lenses, the carrier lamp is provided with an irradiation cavity, a plurality of the polarized lenses are arranged in the irradiation cavity, the inside of the lamp carrier is sequentially arranged with a first irradiation area, a second irradiation area and a third irradiation area, the polarized lenses of the first irradiation area are formed with a first polarized angle, the polarized lenses of the second irradiation area are formed with a second polarized angle, the polarized lenses of the third irradiation area are formed with a third polarized angle; the second polarized angle is perpendicular to the second irradiation area, the inclination angle directions of the first polarized angle and the third polarized angle are opposite, so that the emergent light rays of the polarized lenses of the first irradiation area and the third irradiation area deviate to both sides of the second irradiation area respectively.

[0009] In one of the embodiments, the end surface of the first irradiation area is convexly provided with first inclined blocks, a plurality of the first inclined blocks are sequentially arranged in the first irradiation area, and each of the polarized lenses is correspondingly arranged in the first inclined block.

[0010] In one of the embodiments, the end surface of the third irradiation area is convexly provided with third inclined blocks, a plurality of the third inclined blocks are sequentially arranged in the third irradiation area, and each of the polarized lenses is correspondingly arranged in the third inclined block; and / or,

[0011] The second irradiation area is convexly provided with a convex platform, and a plurality of the polarized lenses are sequentially arranged in the convex platform in a straight line form.

[0012] In one of the embodiments, each of the first inclined blocks is provided with a first inclined placement surface, one of the polarized lenses is arranged in the first inclined placement surface, and the included angle between the first inclined placement surface and the end surface of the first irradiation area is greater than 90°.

[0013] In one of the embodiments, each of the third inclined blocks is provided with a third inclined placement surface, one of the polarized lenses is arranged in the third inclined placement surface, and the included angle between the third inclined placement surface and the end surface of the third irradiation area is greater than 90°.

[0014] In one of the embodiments, the convex platform is provided with a placement end surface, a plurality of the polarized lenses are sequentially arranged in the placement end surface, and the placement end surface is parallel to the projection area of the second irradiation area.

[0015] In one of the embodiments, the inclination directions of the first polarized angle and the third polarized angle are opposite, and the absolute value of the first polarized angle is equal to the absolute value of the third polarized angle.

[0016] In one of the embodiments, the first polarized angle and the third polarized angle are respectively outwardly inclined by 15° to 45° relative to the vertical direction of the second polarized angle.

[0017] In one of the embodiments, the top of the polarized lens is provided with an exit surface, and the exit surface is composed of a plurality of polarized prisms.

[0018] The lighting lamp comprises the outdoor building lighting structure of any one of the above embodiments.

[0019] Compared with the prior art, the present disclosure has at least the following advantages:

[0020] In the present embodiment, the irradiation cavity is formed on the carrier lamp, and a plurality of polarized lenses are arranged in the irradiation cavity. Meanwhile, the lamp carrier is sequentially provided with a first irradiation area, a second irradiation area and a third irradiation area, and the polarized lenses in the first irradiation area form a first polarized angle, the polarized lenses in the second irradiation area form a second polarized angle, and the polarized lenses in the third irradiation area form a third polarized angle. The first polarized angle of the polarized lenses in the first irradiation area is opposite to the inclination direction of the third polarized angle of the polarized lenses in the third irradiation area, and the second polarized angle is perpendicular to the second irradiation area. When the lamp carrier is closely installed on the wall, because the inclination angles of the first polarized angle and the third polarized angle are opposite, the exit light rays of the polarized lenses in the first irradiation area and the polarized lenses in the third irradiation area deviate to both sides of the second irradiation area, so that the side walls on both sides of the wall are brightened, and the buildings and landscapes on both sides of the wall are uniformly illuminated, thereby enhancing the visual effect. Meanwhile, because the second polarized angle is perpendicular to the second irradiation area, the light rays in the second irradiation area directly irradiate the wall surface to form a bright central area, and the overall lighting effect is clear in layers, thereby brightening the area in the middle of the wall. By changing the first polarized angle, the second polarized angle and the third polarized angle, when the lamp carrier is close to the wall, the illumination effect of the entire wall surface can be enhanced by changing the angles, thereby meeting the demand of uniform lighting of the wall surface. BRIEF DESCRIPTION OF DRAWINGS

[0021] In order to more clearly illustrate the technical solutions of the embodiments of the present disclosure, the following will briefly introduce the drawings needed to be used in the embodiments. It should be understood that the following drawings only show some of the embodiments of the present disclosure, and therefore should not be regarded as a limitation on the scope. For those skilled in the art, other related drawings can also be obtained without creative labor.

[0022] Figure 1 It is a cross-sectional view of the outdoor building lighting structure of an embodiment of the present disclosure.

[0023] Figure 2 It is another angle cross-sectional view of the outdoor building lighting structure of an embodiment of the present disclosure.

[0024] Figure 3A structural schematic diagram of a polarized lens of an outdoor architectural lighting structure according to an embodiment of the present disclosure.

[0025] Reference numerals: 10, outdoor architectural lighting structure; 100, luminaire carrier; 110, irradiation cavity; 120, first irradiation area; 1210, first polarized angle; 130, second irradiation area; 1310, second polarized angle; 140, third irradiation area; 1410, third polarized angle; 200, polarized lens; 210, exit face; 220, polarized rib; 300, first inclined block; 310, first inclined placement face; 400, boss; 500, third inclined block; 510, third inclined placement face. DETAILED DESCRIPTION

[0026] For the purpose of clarity, the present disclosure will be described in greater detail with reference to the accompanying drawings. The preferred embodiments of the present disclosure are shown in the drawings. However, the present disclosure can be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete, and fully convey the scope of the present disclosure to those skilled in the art.

[0027] It should be noted that when an element is referred to as being "on" another element, it can be directly on the other element or intervening elements can also be present. When an element is referred to as being "connected" to another element, it can be directly connected to the other element or intervening elements can also be present. The terms "vertical", "horizontal", "left", "right" and similar expressions as used herein are for illustrative purposes only and are not intended to be limiting.

[0028] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this disclosure belongs. The terminology used in the description of the disclosure herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the disclosure. As used herein, the term "and / or" includes any and all combinations of one or more of the associated listed items.

[0029] In order to better understand the technical solutions and beneficial effects of the present disclosure, the present disclosure will be further described in detail below with reference to specific embodiments:

[0030] In combination with Figures 1 to 2As shown, the outdoor building lighting structure 10 of an embodiment includes a lamp carrier 100 and a polarized lens 200, the carrier lamp is provided with an irradiation cavity 110, a plurality of the polarized lens 200 is arranged in the irradiation cavity 110, the inside of the lamp carrier 100 is sequentially arranged with a first irradiation area 120, a second irradiation area 130 and a third irradiation area 140, the polarized lens 200 of the first irradiation area 120 is formed with a first polarized angle 1210, the polarized lens 200 of the second irradiation area 130 is formed with a second polarized angle 1310, the polarized lens 200 of the third irradiation area 140 is formed with a third polarized angle 1410; the second polarized angle 1310 is perpendicular to the second irradiation area 130, the inclination angle direction of the first polarized angle 1210 and the third polarized angle 1410 is opposite, so that the emergent light of the polarized lens 200 of the first irradiation area 120 and the polarized lens 200 of the third irradiation area 140 deviates to both sides of the second irradiation area 130 respectively.

[0031] In this embodiment, the irradiation cavity 110 is opened on the carrier lamp, and a plurality of polarized lenses 200 are arranged in the irradiation cavity 110; meanwhile, the lamp carrier 100 is sequentially arranged with a first irradiation area 120, a second irradiation area 130 and a third irradiation area 140, and the polarized lens 200 located in the first irradiation area 120 is formed with a first polarized angle 1210, the polarized lens 200 located in the second irradiation area 130 is formed with a second polarized angle 1310, and the polarized lens 200 of the third irradiation area 140 is formed with a third polarized lens 200; the inclination direction of the first polarized angle 1210 of the polarized lens 200 in the first irradiation area 120 and the third polarized angle 1410 of the polarized angle in the third irradiation area 140 is opposite, and the second polarized angle 1310 is perpendicular to the second irradiation area 130, when the lamp carrier 100 is installed closely on the wall, because the inclination angles of the first polarized angle 1210 and the third polarized angle 1410 are opposite, the emergent light of the polarized lens 200 of the first irradiation area 120 and the polarized lens 200 of the third irradiation area 140 deviates to both sides of the second irradiation area 130, thereby brightening the side walls on both sides of the wall, so that the buildings and landscapes on both sides of the wall can be uniformly illuminated, and the visual effect is enhanced; meanwhile, because the second polarized angle 1310 is perpendicular to the second irradiation area 130, the light of the second irradiation area 130 directly irradiates the wall surface, forming a bright central area, the overall lighting effect is clear in layers, and the middle area of the wall is brightened; by changing the first polarized angle 1210, the second polarized angle 1310 and the third polarized angle 1410, when the lamp carrier 100 is installed close to the wall, the lighting effect of the whole wall can be enhanced by changing the angle, thereby realizing the demand of uniform brightening of wall lighting.

[0032] In combinationFigure 1 and Figure 2 As shown, in one embodiment, a first tilting block 300 is protruding from the end face of the first irradiation area 120, and a plurality of the first tilting blocks 300 are arranged sequentially in the first irradiation area 120, and each polarizing lens 200 is correspondingly disposed on the first tilting block 300. In this embodiment, a first inclined block 300 is provided on the end face of the first illumination area 120, and the first inclined blocks 300 are arranged sequentially in the first illumination area 120. A polarizing lens 200 is correspondingly disposed on one inclined block. By placing the polarizing lens 200 on the first inclined block 300, the first polarization angle 1210 of the polarizing lens 200 in the first illumination area 120 is changed, causing the first polarization angle 1210 to deviate to one side of the second illumination area 130. By changing the first polarization angle 1210 of the polarization angle in the first illumination area 120, the illumination range of the lamp carrier 100 is expanded. When the lamp carrier 100 is tightly installed on the wall, because the first inclined block 300 changes the illumination angle of the polarizing lens 200 in the first illumination area 120, the polarizing lens 200 in the first illumination area 120 will deviate from one side of the second illumination area 130 for illumination, thereby illuminating the side wall of the wall.

[0033] Combination Figure 1 and Figure 2 As shown, further, a third tilting block 500 protrudes from the end face of the third illumination area 140, and a plurality of the third tilting blocks 500 are arranged sequentially in the third illumination area 140, with each polarizing lens 200 correspondingly disposed on the third tilting block 500. It can be understood that the third illumination area 140 is provided with sequentially arranged third tilting blocks 500, and each third tilting block 500 is provided with a polarizing lens 200, and the tilting direction of the third tilting blocks 500 in the third illumination area 140 deviates from the second illumination area 130, so that the polarizing lens 200 located in the third illumination area 140 can illuminate the other side deviating from the second illumination area 130, thereby illuminating one side of the wall and increasing the brightness around that side of the wall.

[0034] Combination Figure 1 and Figure 2In another embodiment, the second illumination area 130 is provided with a convex platform 400, and a plurality of the polarized lenses 200 are arranged in a straight line on the convex platform 400. It can be understood that, by arranging the polarized lenses 200 in a straight line on the convex platform 400, the polarized lenses 200 can irradiate along the vertical direction of the second illumination area 130, and the irradiation directions of the polarized lenses 200 in the first illumination area 120 and the third illumination area 140 deviate from the two sides of the second illumination area 130, and the polarized lenses 200 in the second illumination area 130 irradiate light along the vertical direction of the convex platform 400, so that the lamp can irradiate a maximum range of reinforced walls, and the building wall is brighter.

[0035] In combination Figure 1 With Figure 2 In one embodiment, each of the first inclined blocks 300 is provided with a first inclined placement surface 310, and one of the polarized lenses 200 is arranged on the first inclined placement surface 310, and the included angle between the first inclined placement surface 310 and the end surface of the first illumination area 120 is greater than 90°. It can be understood that, by arranging the first inclined blocks 300 with the first inclined placement surface 310 and arranging the polarized lenses 200 on the first inclined placement surface 310, in this embodiment, the included angle between the first inclined placement surface 310 and the end surface of the first illumination area 120 is greater than 90°, by designing the first inclined placement surface 310 to be at an obtuse angle with the end surface of the first illumination area 120, the installation plane of the polarized lens 200 is inclined outward relative to the lamp carrier 100. When the light is emitted from the polarized lens 200, the emission direction will further deviate outward due to the obtuse angle structure of the inclined surface, further forming a larger horizontal diffusion angle, strengthening the tendency of the light in the first illumination area 120 to deviate to the side of the second illumination area 130, and expanding the coverage range of the lateral area of the wall. Since the inclination angle exceeds the right angle, the light can reach the edge area of the wall earlier, thereby effectively reducing the illumination blind area.

[0036] In combination Figure 1 With Figure 2As shown, in one of the embodiments, each of the third inclined blocks 500 is provided with a third inclined placement surface 510, one of the polarized lenses 200 is arranged on the third inclined placement surface 510, and the third inclined placement surface 510 is at an angle greater than 90° with the end surface of the third irradiation area 140. It can be understood that, by arranging the third inclined placement surface 510 on the third inclined block 500, and at the same time, the third inclined placement surface 510 is at an angle greater than 90° with the end surface of the third irradiation area 140; similarly, the content of the previous embodiment, because the third inclined placement surface 510 is at an angle greater than 90° with the end surface of the third irradiation area 140, the light emitted by the third irradiation area 140 deviates to the other side of the second irradiation area 130, thereby expanding the coverage range of the other side of the wall area.

[0037] In combination Figure 1 With Figure 2 As shown, in one of the embodiments, the boss 400 is provided with a placement end surface, and a plurality of polarized lenses 200 are arranged on the placement end surface in sequence, and the placement end surface is parallel to the projection area of the second irradiation area 130. It can be understood that, because the placement end surface is parallel to the projection area of the second irradiation area 130, it is ensured that the light emitted by the polarized lens 200 on the placement end surface can be accurately emitted along the direction perpendicular to the second irradiation area 130. When the lamp carrier 100 is installed closely on the wall surface, because of the parallel design of the placement end surface, the polarized lens 200 of the second irradiation area 130 can be irradiated at a straight vertical angle on the middle position of the wall surface, so that the central area of the wall surface is bright. In addition, the inclined placement surface of the first irradiation area 120 and the third irradiation area 140 is at an angle greater than 90° with the end surface of the first irradiation area 120 and the third irradiation area 140 respectively, so that the light can deviate to the outside and expand the coverage range, in combination with the placement end surface parallel to the projection area of the second irradiation area 130 to ensure that the light can be emitted along the vertical direction, so that the lighting effect of the whole wall surface is more balanced and coordinated, which meets more diversified application scenarios and demands.

[0038] In combination Figure 1 With Figure 2As shown, in one embodiment, the first polarizing angle 1210 is opposite to the third polarizing angle 1410, and the absolute value of the first polarizing angle 1210 is equal to the absolute value of the third polarizing angle 1410. In a more specific embodiment, the first polarizing angle 1210 is opposite to the third polarizing angle 1410, and the absolute value of the first polarizing angle 1210 is equal to the absolute value of the third polarizing angle 1410; when the lamp carrier 100 is installed on the wall, due to the equal absolute values and opposite directions of the first polarizing angle 1210 and the third polarizing angle 1410, the light of the polarizing lens 200 of the first illumination area 120 deviates to one side of the second illumination area 130, and the light of the polarizing lens 200 of the third illumination area 140 deviates to the other side of the second illumination area 130, ensuring the symmetry of the wall lighting effect, and further making the visual effect of the entire wall more uniform.

[0039] In combination Figure 1 With Figure 2 As shown, further, the first polarizing angle 1210 and the third polarizing angle 1410 are respectively inclined outward by 15° to 45° relative to the vertical direction of the second polarizing angle 1310. It can be understood that setting the inclination angles of the first polarizing angle 1210 and the third polarizing angle 1410 in the range of 15° to 45° avoids the insufficient degree of light deviation from both sides of the second illumination area 130 due to the small inclination angles of the first polarizing angle 1210 and the third polarizing angle 1410, so that the side walls on both sides of the wall cannot be fully illuminated, affecting the uniformity of the overall illumination; similarly, when the inclination angle is too large, the light may deviate excessively from the center of the wall, causing waste of light and reduction of illumination efficiency. By limiting the first polarizing angle 1210 and the third polarizing angle 1410 in the range of 15° to 45°, the balance and aesthetics of the lighting effect are ensured.

[0040] In combination Figure 1 With Figure 3 In one embodiment, the top of the polarizing lens 200 is provided with an exit surface 210, and the exit surface 210 is composed of a plurality of polarizing ribs 220. It can be understood that by setting the polarizing ribs 220 on the exit surface 210, and combining a plurality of polarizing ribs 220 into the exit surface 210, when the light passes through the exit surface 210, it is refracted by the polarizing ribs 220, further accurately controlling the exit direction and diffusion range of the light, and further enhancing the uniformity of the light.

[0041] The application also includes a lighting lamp, comprising the application name of any of the above embodiments. It can be understood that when the lamp carrier 100 is installed closely on the wall, because the first polarization angle 1210 and the third polarization angle 1410 are opposite in inclination angle, the emergent light of the polarizing lens 200 of the first irradiation area 120 and the polarizing lens 200 of the third irradiation area 140 deviates to both sides of the second irradiation area 130, so that the side walls on both sides of the wall are brightened, and the buildings and landscapes on both sides of the wall are uniformly illuminated, enhancing the visual effect; at the same time, because the second polarization angle 1310 is perpendicular to the second irradiation area 130, the light of the second irradiation area 130 directly irradiates the wall surface, forming a bright central area, and the overall lighting effect is clear in layers, further brightening the area in the middle of the wall.

[0042] Compared with the prior art, the present disclosure has at least the following advantages:

[0043] In the present embodiment, the irradiation cavity 110 is opened on the carrier lamp, and a plurality of polarizing lenses 200 are arranged in the irradiation cavity 110; at the same time, the lamp carrier 100 is sequentially arranged with the first irradiation area 120, the second irradiation area 130 and the third irradiation area 140, and the polarizing lens 200 located in the first irradiation area 120 forms the first polarization angle 1210, the polarizing lens 200 located in the second irradiation area 130 forms the second polarization angle 1310, and the polarizing lens 200 located in the third irradiation area 140 forms the third polarization angle 1410; the inclination direction of the first polarization angle 1210 of the polarizing lens 200 in the first irradiation area 120 and the third polarization angle 1410 of the polarizing lens 200 in the third irradiation area 140 is opposite, and the second polarization angle 1310 is perpendicular to the second irradiation area 130; when the lamp carrier 100 is installed closely on the wall, because the inclination angle of the first polarization angle 1210 and the third polarization angle 1410 is opposite, the emergent light of the polarizing lens 200 of the first irradiation area 120 and the polarizing lens 200 of the third irradiation area 140 deviates to both sides of the second irradiation area 130, so that the side walls on both sides of the wall are brightened, and the buildings and landscapes on both sides of the wall are uniformly illuminated, enhancing the visual effect; at the same time, because the second polarization angle 1310 is perpendicular to the second irradiation area 130, the light of the second irradiation area 130 directly irradiates the wall surface, forming a bright central area, and the overall lighting effect is clear in layers, further brightening the area in the middle of the wall; by changing the first polarization angle 1210, the second polarization angle 1310 and the third polarization angle 1410, when the lamp carrier 100 is installed closely on the wall, the lighting effect of the whole wall can be enhanced by changing the angle, thereby realizing the demand of uniform brightening of wall lighting.

[0044] The above-described embodiments only express several implementation manners of the present disclosure, which are described in a more specific and detailed manner, but cannot be understood as a limitation on the scope of the utility model patent. It should be noted that, for ordinary skilled persons in the art, several modifications and improvements can be made without departing from the concept of the present disclosure, which all belong to the protection scope of the present disclosure. Therefore, the protection scope of the present disclosure patent should be subject to the appended claims.

Claims

1. An outdoor architectural lighting structure, characterized by, The lamp carrier is provided with a plurality of light-emitting cavities, and a plurality of polarized lenses are arranged in the light-emitting cavities; the interior of the lamp carrier is sequentially provided with a first light-emitting area, a second light-emitting area and a third light-emitting area; the polarized lenses in the first light-emitting area are formed with a first polarized angle, the polarized lenses in the second light-emitting area are formed with a second polarized angle, and the polarized lenses in the third light-emitting area are formed with a third polarized angle; the second polarized angle is perpendicular to the second light-emitting area, and the first polarized angle and the third polarized angle are opposite in the direction of the inclination angle, so that the light rays emitted by the polarized lenses in the first light-emitting area and the third light-emitting area deviate to the two sides of the second light-emitting area, respectively.

2. The outdoor architectural lighting structure of claim 1, wherein, The end surface of the first light-emitting area is provided with a plurality of first inclined blocks, and each of the polarized lenses is arranged on the first inclined block.

3. The outdoor architectural lighting structure of claim 1, wherein, The end surface of the third light-emitting area is provided with a plurality of third inclined blocks, and each of the polarized lenses is arranged on the third inclined block. The second light-emitting area is provided with a plurality of bosses, and the polarized lenses are arranged on the bosses in a straight line.

4. The outdoor architectural lighting structure of claim 2, wherein, Each of the first inclined blocks is provided with a first inclined placement surface, and one of the polarized lenses is arranged on the first inclined placement surface; the included angle between the first inclined placement surface and the end surface of the first light-emitting area is greater than 90°.

5. The outdoor architectural lighting structure of claim 3, wherein, Each of the third inclined blocks is provided with a third inclined placement surface, and one of the polarized lenses is arranged on the third inclined placement surface; the included angle between the third inclined placement surface and the end surface of the third light-emitting area is greater than 90°.

6. The outdoor architectural lighting structure of claim 3, wherein, The boss is provided with a placement end surface, and the polarized lenses are arranged on the placement end surface in a straight line; the placement end surface is parallel to the projection area of the second light-emitting area.

7. The outdoor architectural lighting structure of claim 1, wherein, The first polarized angle and the third polarized angle are opposite in the direction of the inclination, and the absolute value of the first polarized angle is equal to the absolute value of the third polarized angle.

8. The outdoor architectural lighting structure of claim 1, wherein, The first polarized angle and the third polarized angle are inclined outward by 15° to 45° relative to the vertical direction of the second polarized angle.

9. The outdoor architectural lighting structure of claim 1, wherein, The top of the polarized lens is provided with an exit surface, and the exit surface is composed of a plurality of polarized ribs.

10. A lighting fixture, characterized by, The outdoor building lighting structure comprises the outdoor building lighting structure according to any one of claims 1 to 9.

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