New energy vehicle lights with uniform light output from the front and sides at large angles

Abstract

A new energy vehicle lamp with uniform light output from the front and side at a large angle comprises a reflector, wherein the reflector comprises a light output area which is arranged in an arc shape on the outside of the reflector and has a light output range angle greater than 90 degrees, an inner reflection area arranged opposite to the light output area, an upper reflection area and a lower reflection area which are located between the light output area and the inner reflection area and are arranged opposite to each other up and down, wherein a light entrance area for installing a light source is provided in the inner area of ​​the upper reflection area; a reflection blending space connected to the light entrance area is formed between the light output area and the inner reflection area, the reflection blending space is located between the light input area and the inner reflection area and allows part of the light from the light input area to be diffused through the reflection blending space and then emitted toward the inner reflection area, and the reflection blending space is located between the inner reflection area and the light output area and allows the inner reflection area to reflect part of the light toward the reflection blending space and then emit it from the light output area.

Description

Technical Field

[0001] The present invention relates to the technical field of new energy automobile lamps, and in particular to a new energy automobile lamp that emits light uniformly from the front and side at a large angle. Background Art

[0002] As the requirements for lighting and lighting effects of existing new energy vehicles are gradually increasing, the OEMs usually require better lighting effects when designing car lights. The existing stepped structure of the car light reflector is shown in the reflector in the patent application number CN202021755807.3. When the car light is lit, Figure 1 and 2 As shown, the stepped reflector will form a number of dark areas spaced apart from each other in the positive light-emitting direction of the headlight when reflecting light in the positive light-emitting direction of the headlight, resulting in poor light-emitting effect of the headlight. At the same time, since each reflecting unit in the reflector is provided with an LED light source in a one-to-one correspondence, the forward and lateral light emission uniformity of the headlight is poor when in use, resulting in poor light-emitting effect of the headlight. Summary of the invention

[0003] The present invention aims to solve the problems existing in the above-mentioned prior art and provide a new energy vehicle lamp with uniform light output at a large angle and on the front and sides, so that the reflector has better light uniformity in the forward and lateral directions, and at the same time eliminates the dark area in the forward light output direction of the lamp, so that the light output effect of the lamp is better.

[0004] The present invention solves the technical problem by adopting a technical solution: the new energy automobile lamp with large-angle front and side uniform light emission comprises a reflector, the reflector comprises a light emission area which is arranged in an arc shape on the outside of the reflector and has a light emission range angle greater than 90 degrees, an inner reflection area arranged opposite to the light emission area, an upper reflection area and a lower reflection area which are located between the light emission area and the inner reflection area and are arranged opposite to each other in upper and lower directions, and a light entrance area for installing a light source is provided in the inner area of ​​the upper reflection area;

[0005] A reflection blending space connected to the light incident area is formed between the light exit area and the internal reflection area. The reflection blending space is located between the light incident area and the internal reflection area and allows part of the light from the light incident area to be diffused through the reflection blending space and then emitted toward the internal reflection area. The reflection blending space is located between the internal reflection area and the light exit area and allows the internal reflection area to reflect part of the light toward the reflection blending space and then emit it from the light exit area.

[0006] Preferably, the inner reflection area includes at least one group of reflection units distributed in an arc shape, the reflection units include a front reflection surface for reflecting light forwardly toward the headlight and a side reflection surface for reflecting light laterally toward the headlight; the reflection units are connected in sequence to form a step structure, and the side reflection surfaces in adjacent reflection units are connected in sequence to the front reflection surface from front to back; the front reflection surface is extended outward and the side reflection surface connected to it is inclined outward.

[0007] Preferably, the direct reflection surface is an arc-shaped concave surface that is gradually bent forward from top to bottom, and the arc-shaped concave surface is provided with a plurality of patterned surfaces distributed in an array and arranged in an arc-shaped convex structure. The side reflection surface is a vertical plane arranged vertically, and the vertical plane is provided with a plurality of long arc-shaped convex surfaces distributed side by side from top to bottom.

[0008] Preferably, the rear end of the side reflection surface in the reflection unit is connected to the inner end of the regular reflection surface, and the front end of the side reflection surface is connected to the outer end extension part of the regular reflection surface in the adjacent reflection unit. A reflection angle α is formed between the side reflection surface in the reflection unit and the forward reflected light of the vehicle lamp, and α is greater than or equal to 3° and less than or equal to 20°; the reflection angle α on several reflection units is set to gradually increase from front to back.

[0009] Preferably, the light entrance area is located between the internal reflection area and the reflection blending space and forms an installation cavity with an unshielded area in the middle, and installation fixing parts are arranged around the installation cavity.

[0010] Preferably, the reflection blending space includes an upper reflection diffusion surface located at the lower end surface of the upper reflection area, a lower reflection diffusion surface located at the upper end surface of the lower reflection area, a right reflection diffusion surface located on the right wall of the reflection blending space and connected to the side reflection surface of the rightmost reflection unit, and a left reflection diffusion surface located on the left wall of the reflection blending space and connected to the direct reflection surface of the leftmost reflection unit.

[0011] Preferably, a plurality of lower arc-shaped protrusions arranged in an array are provided on the lower reflection diffusion surface, and the lower arc-shaped protrusions extend from the inner reflection area to the light exit area, and the lower arc-shaped protrusions are respectively arranged at acute angles with the direct reflection surface and the side reflection surface, and a first outer diffusion reflection surface which is gradually bent to the left from top to bottom and a first inner diffusion reflection surface which is gradually bent to the right from top to bottom are provided on the lower arc-shaped protrusions. Part of the light in the light entrance area is diffused through the first side diffusion reflection surface to the rear end of the light exit area or the direct reflection surface, and part of the light in the light entrance area is diffused through the first inner diffusion reflection surface to the side reflection surface.

[0012] Preferably, a plurality of vertical arc-shaped protrusions are arranged in an array and perpendicular to the lower arc-shaped protrusion on the upper reflective diffusion surface, and a second inner diffuse reflection surface is arranged to bend gradually to the left from bottom to top and a second outer diffuse reflection surface is arranged to bend gradually to the right from bottom to top. Part of the light in the light incident area is diffused toward the regular reflection surface through the second inner diffuse reflection surface, and part of the light in the light incident area is diffused toward the front end of the light exit area through the second outer diffuse reflection surface.

[0013] Preferably, the upper reflective diffusion surface is provided with a plurality of parallel arc-shaped protrusions arranged in an array and arranged parallel to the lower arc-shaped protrusion.

[0014] Preferably, the mounting and fixing portion comprises a supporting surface which is opened at the upper end of the reflector and connected to the mounting cavity, and a plurality of positioning pins and threaded fixing holes which are arranged on the supporting surface.

[0015] The beneficial effects of the present invention are as follows: a reflection blending space is provided between the light emitting area and the reflection area in the present invention, and part of the light after passing through the light incident area is diffused by the reflection blending space and then emitted to the inner reflection area, thereby making the light reflected by the inner reflection area more dispersed, thereby making the light uniformity of the reflector in the forward and lateral directions better; at the same time, the direct reflection surface in the reflection unit is extended outward and the side reflection surface connected thereto is inclined outward, thereby making the reflected light of the direct reflection surface at the rear end blocked by the outward extending part of the direct reflection surface at the front end, thereby making the reflected light on adjacent direct reflection surfaces connected to each other, eliminating the dark area in the forward light emitting direction of the reflector, and making the light emitting effect of the car lamp better. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 is a schematic diagram of the structure of an existing reflector;

[0017] Figure 2 It is a schematic diagram of light output of an existing reflector;

[0018] Figure 3 It is a structural schematic diagram of the reflector in the present invention;

[0019] Figure 4 for Figure 3 A magnified view of part A;

[0020] Figure 5 for Figure 3 A magnified view of part B;

[0021] Figure 6 It is a schematic diagram of the structure when a vertical arc-shaped protrusion is provided on the upper reflective diffusion surface in the present invention;

[0022] Figure 7 for Figure 6 Enlarged view of part C;

[0023] Figure 8 It is a schematic diagram of the structure when parallel arc-shaped protrusions are provided on the upper reflective diffusion surface in the present invention;

[0024] Fig. 9 is a top view of the reflector;

[0025] Fig.10 is a light emission diagram of the internal reflection area in the present invention;

[0026] Fig.11 Schematic diagram of the light output of the reflector as a whole in the present invention;

[0027] Fig.12 It is a schematic diagram of the light emission direction of the existing reflector;

[0028] Fig.13 It is a schematic diagram of light emission from the first external diffuse reflection surface in the side light emission direction in the present invention.

[0029] Explanation of the reference numerals: 1. reflector, 2. light emitting area, 3. internal reflection area, 3-1. reflection unit, 3-1-1. regular reflection surface, 3-1-2. side reflection surface, 4. upper reflection area, 5. lower reflection area, 6. light entrance area, 7. reflection blending space, 8. arc-shaped inner concave surface, 9. patterned surface, 10. vertical plane, 11. long arc-shaped convex surface, 12. mounting cavity, 13. mounting fixing part, 14. upper reflection diffusion surface, 15. lower reflection diffusion Surface, 16, right reflection diffusion surface, 17, left reflection diffusion surface, 18, lower arc-shaped protrusion, 18-1, first outer diffusion reflection surface, 18-2, first inner diffusion reflection surface, 19, vertical arc-shaped protrusion, 19-1, second inner diffusion reflection surface, 19-2, second outer diffusion reflection surface, 23, parallel arc-shaped protrusion, 20, supporting surface, 21, positioning pin, 22, threaded fixing hole, 23, parallel arc-shaped protrusion, 24, LED mounting hole. DETAILED DESCRIPTION

[0030] The present invention will be further described below in conjunction with the accompanying drawings:

[0031] like Figure 1 and Figure 2 As shown, the existing stepped automobile lamp reflector includes a plurality of stepped and independently arranged reflective units 3-1, the reflective unit 3-1 is provided with an LED mounting hole 24 for mounting an LED light source, and the LED light source is separately mounted in the reflective unit 3-1. The light emitted by the LED light source is reflected in the positive light emitting direction and the side light emitting direction of the automobile respectively under the action of the reflective surface on the reflective unit 3-1. Since the emitted light is reflected by a single LED light source, the uniformity of the emitted light at different positions of the automobile reflector is poor, resulting in poor overall light emitting effect of the automobile lamp; at the same time, the reflective unit 3-1 in the automobile reflector includes a positive reflective surface 3-1-1 and a side reflective surface 3-1-2. When the positive reflective surface 3-1-1 emits light in the positive light emitting direction (X-axis direction) of the automobile, there is a side reflective surface 3-1-2 between two adjacent positive reflective surfaces 3-1-1 for reflecting light laterally, thereby causing a dark area of ​​a certain range between the reflected light of the positive reflective surface 3-1-1; at the same time, as Fig.12 As shown, the lateral light emitting direction of the reflector 1 is perpendicular to the front light emitting direction, so that the lateral light emitting range of the reflector 1 is determined by the size of the reflector 1, and the lighting effect of the reflector 1 is poor when viewed at a large angle exceeding the size of the reflector 1.

[0032] See attached Figure 3 As shown, the present embodiment discloses a new energy vehicle lamp with uniform light emission from the front side at a large angle, comprising a reflector 1, wherein the reflector 1 comprises a light emitting area 2 which is arranged in an arc shape on the outside of the reflector 1 and has a light emitting range angle greater than 90 degrees, an inner reflection area 3 which is arranged opposite to the light emitting area 2, an upper reflection area 4 and a lower reflection area 5 which are arranged opposite to each other in an upper and lower direction between the light emitting area 2 and the inner reflection area 3, and a light entrance area 6 for installing a light source is provided in the inner area of ​​the upper reflection area 4; further, in order to ensure the uniformity of light emission from the vehicle reflector 1 and to improve the overall light emission effect of the vehicle lamp, in the present embodiment, a light emitting area 6 is provided in the light emitting area 6; 2 and the internal reflection area 3, a reflection blending space 7 connected to the light entrance area 6 is formed, and the reflection blending space 7 is located between the light entrance area 6 and the internal reflection area 3; part of the light from the light source enters the reflector 1 through the light entrance area 6 and then diffuses through the reflection blending space 7 and then is emitted to the internal reflection area 3; at the same time, the reflection blending space 7 is also located between the internal reflection area 3 and the light exiting area 2, and makes the internal reflection area 3 reflect part of the light toward the reflection blending space 7 and then emit it from the light exiting area 2; when in use, part of the light passing through the light entrance area 6 is directly emitted to the internal reflection area 3 and then is reflected by the internal reflection area 3 and then emitted to the light exiting area 2.

[0033] Further, such as Figure 3 and Figure 4 As shown, in order to eliminate the dark area existing in the stepped reflector 1 in the positive light emitting direction, the inner reflection area 3 in this embodiment includes at least one group of reflection units 3-1 distributed in an arc shape, and the reflection unit 3-1 includes a positive reflection surface 3-1-1 for reflecting light positively toward the headlight and a side reflection surface 3-1-2 for reflecting light sideways toward the headlight; the reflection units 3-1 are connected in sequence to form a step structure, and the side reflection surfaces 3-1-2 in adjacent reflection units 3-1 are connected to the positive reflection surface 3-1-1 in sequence from front to back; the positive reflection surface 3-1-1 is extended outward and makes the side reflection surface 3-1-2 connected thereto be inclined outward; specifically, as shown in FIG. Figure 3 and Figure 4 As shown, the rear end of the side reflection surface 3-1-2 in the reflection unit 3-1 of this embodiment is connected to the inner end of the regular reflection surface 3-1-1, and the front end of the side reflection surface 3-1-2 is connected to the outer end extension part of the regular reflection surface 3-1-1 in the adjacent reflection unit 3-1, so that multiple reflection units 3-1 are connected in sequence to form an arc-shaped reflection area 3; when in use, part of the light from the light source entering the reflector 1 through the light entrance area 6 is emitted to the side reflection surface 3-1-2, and the light is reflected by the inclined side reflection surface 3-1-2 and emitted to the light exit area 2; further, as Fig. 9As shown, a reflection angle α is formed between the side reflection surface 3-1-2 in the reflection unit 3-1 of this embodiment and the forward reflected light of the vehicle lamp, and α is greater than or equal to 3° and less than or equal to 20°; the reflection angle α on a plurality of reflection units 3-1 is gradually increased from the front to the back, and then the side reflection surfaces 3-1-2 on the reflection units 3-1 connected in sequence are set at different inclination angles, so that the side light emitting light of the side reflection surface 3-1-2 is gradually rotated and offset toward the front end to cover the side light emitting surface of the entire reflector 1;

[0034] Further, such as Figure 3 , Figure 5 and Figure 6 As shown, the reflection blending space 7 in this embodiment includes an upper reflection diffusion surface 14 located at the lower end surface of the upper reflection area 4, a lower reflection diffusion surface 15 located at the upper end surface of the lower reflection area 5, a right reflection diffusion surface 16 located at the right wall of the reflection blending space 7 and connected to the side reflection surface 3-1-2 of the rightmost reflection unit 3-1, and a left reflection diffusion surface 17 located at the left wall of the reflection blending space 7 and connected to the regular reflection surface 3-1-1 of the leftmost reflection unit 3-1; specifically, as shown in FIG. Figure 3 and Figure 5 As shown, the lower reflective diffusion surface 15 in this embodiment is provided with a plurality of lower arc-shaped protrusions 18 arranged in an array; the lower arc-shaped protrusions 18 in this embodiment are extended from the inner reflection area 3 to the light emitting area 2, and the lower arc-shaped protrusions 18 are in a long strip structure, and one end of the inner side of the lower arc-shaped protrusions 18 is located between the positive reflection surface 3-1-1 and the side reflection surface 3-1-2 of a single reflection unit 3-1. The lower arc-shaped protrusions 18 in this embodiment are respectively arranged at acute angles with the positive reflection surface 3-1-1 and the side reflection surface 3-1-2, so that the lower arc-shaped protrusions 18 are extended from the reflection unit 3-1 to the light emitting area 2 at an angle; at the same time, as shown Figure 5As shown, in this embodiment, a first outer diffusion reflection surface 18-1 that is gradually bent to the left from top to bottom and a first inner diffusion reflection surface 18-2 that is gradually bent to the right from top to bottom are provided on the lower arc-shaped raised portion 18, so that part of the light from the light source entering the reflector 1 through the light entrance area 6 is reflected by the curved first outer diffusion reflection surface 18-1 and then diffused toward the rear end of the light exit area 2 or the regular reflection surface 3-1-1 of the reflection unit 3-1, thereby increasing the incident light of the regular reflection surface 3-1-1, thereby improving the light output quality of the reflector 1 and improving the lighting effect, and at the same time, part of the light is obliquely emitted toward the rear end of the light exit area 2 through the first outer diffusion reflection surface 18-1, thereby increasing the output light of the light exit area 2, and at the same time, part of the output light The light is emitted obliquely from the rear end of the light emitting area 2, thereby increasing the observation angle of the reflector 1, and thereby making the light emitting range angle of the light emitting area 2 greater than 90 degrees, and also having a good lighting effect when the reflector 1 is viewed at a large angle exceeding the size of the reflector 1; correspondingly, part of the light from the light source through the light entrance area 6 is diffused by the first inner diffusion reflection surface 18-2 to the side reflection surface 3-1-2, wherein the light is reflected and diffused by the curved first inner diffusion reflection surface 18-2, and the diffused light further increases the incident light of the side reflection surface 3-1-2, and also makes the light reflected by the side reflection surface 3-1-2 more evenly distributed and brighter, thereby improving the lighting effect of the reflector 1 when viewed from the side at a large angle.

[0035] Similarly, if Figure 6 and Figure 7 As shown, in the reflector 1 of this embodiment, a plurality of vertical arc-shaped protrusions 19 arranged in an array and perpendicular to the lower arc-shaped protrusion 18 can be provided on the upper reflective diffusion surface 14, and the vertical arc-shaped protrusion 19 is also arranged in a long strip shape and has the same structure as the lower arc-shaped protrusion 18; wherein, the vertical arc-shaped protrusion 19 in this embodiment is provided with a second inner diffuse reflection surface 19-1 which is gradually bent to the left from bottom to top and a second outer diffuse reflection surface 19-2 which is gradually bent to the right from bottom to top; similarly, part of the light from the light source passing through the light entrance area 6 is diffused through the second inner diffuse reflection surface 19-1 to the regular reflection surface 3-1-1, thereby making the incident light on the regular reflection surface 3-1-1 further The increase makes more light reflected from the regular reflection surface 3-1-1, and also ensures the uniformity of light emission from the regular reflection surface 3-1-1, thereby further improving the light emission quality of the reflector 1 on the regular reflection surface 3-1-1; the other part of the light is diffused and emitted to the front end of the light emission area 2 through the second outer diffusion reflection surface 19-2; the vertical arc convex portion 19 arranged perpendicular to the lower arc convex portion 18 further increases the emitted light from the light emission area 2 during reflection, and at the same time, part of the emitted light is emitted obliquely from the front end of the light emission area 2, thereby increasing the observation angle of the reflector 1, and thereby making the light emission range angle of the light emission area 2 greater than 90 degrees, and also having a better lighting effect when the reflector 1 is viewed at a large angle exceeding the size of the reflector 1;

[0036] like Figure 8 As shown, a plurality of parallel arc-shaped protrusions 23 arranged in an array and parallel to the lower arc-shaped protrusion 18 may also be provided on the upper reflective diffusion surface 14 in this embodiment. The parallel arc-shaped protrusions 23 are also in the shape of long strips and have the same structure as the lower arc-shaped protrusions 18. When the parallel arc-shaped protrusions 23 reflect light, the partial reflection direction of the light is the same as the partial reflection direction of the light on the lower arc-shaped protrusions 18. Therefore, compared with the vertical arc-shaped protrusions 19, the use of the vertical arc-shaped protrusions 19 can make the light output quality of the reflector 1 better.

[0037] Furthermore, if Figure 3 As shown, the regular reflection surface 3-1-1 in this embodiment is an arc-shaped inner concave surface 8 that is gradually bent forward from top to bottom; and the middle end of the horizontal cross section of the arc-shaped inner concave surface 8 is bent backward to form an arc shape; further, as Figure 4 As shown, the arc-shaped inner concave surface 8 in this embodiment is provided with a plurality of patterned surfaces 9 distributed in an array and arranged in an arc-shaped outer convex structure, and a plurality of patterned surfaces 9 are arranged on the arc-shaped inner concave surface 8, so that the light incident on each position of the arc-shaped inner concave surface 8 is diffusely reflected by the patterned surface 9 with an arc-shaped outer convex structure during reflection, so that the light is further diffused through the patterned surface 9, so that the reflected light is dispersed more evenly, so that the light is distributed more evenly when emitting light, thereby further improving the light emission uniformity of the reflector 1.

[0038] Further, such as Figure 3 , Fig. 9 and Fig.10 As shown, the side reflection surface 3-1-2 is a vertical plane 10 arranged vertically, and a plurality of long arc-shaped raised surfaces 11 are arranged side by side from top to bottom on the vertical plane 10. The long arc-shaped raised surfaces 11 are in a convex arc structure, so that the side reflection surface 3-1-2 can realize reflection while the light is diffusely reflected under the action of the long arc-shaped raised surfaces 11, thereby making the light dispersion more uniform.

[0039] Furthermore, Figure 6As shown, in this embodiment, in order to facilitate the installation of the light source, a mounting cavity 12 is formed in the light entrance area 6 between the internal reflection area 3 and the reflection blending space 7 and has an intermediate unobstructed area, and mounting fixing parts 13 are provided around the mounting cavity 12; specifically, the mounting cavity 12 in this embodiment is used to install a control circuit board with a light source, and the control circuit board is covered and shielded in the mounting cavity 12. The number of light sources on the control circuit board in this embodiment is the same as the number of reflection units 3-1, and the light source is installed on the lower end surface of the control circuit board and is located at the front end of the positive reflection surface 3-1-1 of the reflection unit 3-1; in this embodiment, in order to increase the utilization rate of light, the lower end surface of the control circuit board can be made white, so that the light can be further reflected to other positions through the control circuit board, thereby improving the light output brightness of the reflector 1.

[0040] Further, such as Figure 3 As shown, the mounting and fixing portion 13 in this embodiment includes a supporting surface 20 opened at the upper end of the reflector 1 and connected to the mounting cavity 12, and a plurality of positioning pins 21 and threaded fixing holes 22 arranged on the supporting surface 20. The control circuit board for installing the light source can then be positioned through the positioning pins 21, and finally the circuit board can be fixed through the threaded fixing holes 22, thereby ensuring accurate positioning of the circuit board and high installation accuracy of the light source.

[0041] Certain words are used in the specification and claims of the present invention to refer to specific products. It should be understood by those skilled in the art that manufacturers may refer to the same component by different names. It is not intended to distinguish between components that have the same function but different names. In the following specification and patent scope, the words "comprise", "have" and "include" are open-ended words and should be interpreted as "including but not limited to...".

[0042] The above is a preferred embodiment of the present invention. It should be pointed out that a person skilled in the art can make several improvements and modifications without departing from the principle of the present invention. These improvements and modifications are also considered to be within the scope of protection of the present invention.

Claims

1. A new energy vehicle lamp with large-angle front and side uniform light output, comprising a reflector (1), characterized in that: The reflector (1) comprises a light emitting area (2) located outside the reflector (1) and arranged in an arc shape with a light emitting range angle greater than 90 degrees, an inner reflection area (3) arranged opposite to the light emitting area (2), an upper reflection area (4) and a lower reflection area (5) located between the light emitting area (2) and the inner reflection area (3) and arranged opposite to each other in an up-and-down manner, and a light entrance area (6) for installing a light source is provided in an inner area of ​​the upper reflection area (4); A reflection blending space (7) connected to the light entrance area (6) is formed between the light exit area (2) and the internal reflection area (3); the reflection blending space (7) is located between the light entrance area (6) and the internal reflection area (3) and allows part of the light from the light entrance area (6) to diffuse through the reflection blending space (7) and then be emitted toward the internal reflection area (3); the reflection blending space (7) is located between the internal reflection area (3) and the light exit area (2) and allows the internal reflection area (3) to reflect another part of the light toward the reflection blending space (7) and then emit it from the light exit area (2); The inner reflection area (3) comprises at least one group of reflection units (3-1) arranged in an arc shape, the reflection unit (3-1) comprising a positive reflection surface (3-1-1) for reflecting light forwardly toward the headlight and a side reflection surface (3-1-2) for reflecting light laterally toward the headlight; the reflection units (3-1) are connected in sequence to form a step structure, and the side reflection surfaces (3-1-2) in adjacent reflection units (3-1) are connected to the positive reflection surface (3-1-1) in sequence from front to back; the positive reflection surface (3-1-1) is extended outwardly so that the side reflection surface (3-1-2) connected thereto is inclined outwardly; the reflection blending space (7) The invention comprises an upper reflection diffusion surface (14) located at the lower end surface of the upper reflection area (4), a lower reflection diffusion surface (15) located at the upper end surface of the lower reflection area (5), a right reflection diffusion surface (16) located at the right wall of the reflection blending space (7) and connected to the side reflection surface (3-1-2) of the rightmost reflection unit (3-1), and a left reflection diffusion surface (17) located at the left wall of the reflection blending space (7) and connected to the regular reflection surface (3-1-1) of the leftmost reflection unit (3-1); the lower reflection diffusion surface (15) is provided with a plurality of lower arc-shaped protrusions (18) arranged in an array, and the lower arc-shaped protrusions (18) extend from the inner reflection area (3) to the light exit area (3). 2) is extended, the lower arc-shaped protrusion (18) is respectively arranged at an acute angle with the regular reflection surface (3-1-1) and the side reflection surface (3-1-2), and the lower arc-shaped protrusion (18) is provided with a first outer diffusion reflection surface (18-1) which is gradually bent to the left from top to bottom and a first inner diffusion reflection surface (18-2) which is gradually bent to the right from top to bottom, part of the light of the light entrance area (6) is diffused through the first outer diffusion reflection surface (18-1) to the rear end of the light exit area (2) or the regular reflection surface (3-1-1), and part of the light of the light entrance area (6) is diffused through the first inner diffusion reflection surface (18-2) to the side reflection surface ( 3-1-2); the upper reflective diffusion surface (14) is provided with a plurality of vertical arc-shaped protrusions (19) arranged in an array and perpendicular to the lower arc-shaped protrusion (18); the vertical arc-shaped protrusion (19) is provided with a second inner diffuse reflection surface (19-1) which is gradually curved to the left from bottom to top and a second outer diffuse reflection surface (19-2) which is gradually curved to the right from bottom to top; part of the light from the light entrance area (6) is diffused toward the regular reflection surface (3-1-1) through the second inner diffuse reflection surface (19-1), and part of the light from the light entrance area (6) is diffused toward the front end of the light exit area (2) through the second outer diffuse reflection surface (19-2).

2. The new energy automobile lamp with large-angle front and side uniform light output according to claim 1 is characterized in that: The positive reflection surface (3-1-1) is an arc-shaped inner concave surface (8) that is gradually bent forward from top to bottom, and a plurality of patterned surfaces (9) that are distributed in an array and arranged in an arc-shaped outer convex structure are provided on the arc-shaped inner concave surface (8). The side reflection surface (3-1-2) is a vertical plane (10) that is vertically arranged, and a plurality of long arc-shaped convex surfaces (11) that are distributed side by side from top to bottom are provided on the vertical plane (10).

3. The new energy vehicle lamp with large-angle front and side uniform light output according to claim 1 or 2 is characterized in that: The rear end of the side reflection surface (3-1-2) in the reflection unit (3-1) is connected to the inner end of the regular reflection surface (3-1-1), and the front end of the side reflection surface (3-1-2) is connected to the outer end extension portion of the regular reflection surface (3-1-1) in the adjacent reflection unit (3-1). A reflection angle α is formed between the side reflection surface (3-1-2) in the reflection unit (3-1) and the forward reflected light of the vehicle lamp, and α is greater than or equal to 3° and less than or equal to 20°; the reflection angles α on the plurality of reflection units (3-1) are arranged to gradually increase from front to back.

4. The new energy automobile lamp with large-angle front and side uniform light output according to claim 2 is characterized in that: The light entrance area (6) is located between the internal reflection area (3) and the reflection blending space (7) and forms a mounting cavity (12) with an unobstructed area in the middle, and mounting fixing parts (13) are provided around the mounting cavity (12).

5. The new energy automobile lamp with large-angle front and side uniform light output according to claim 1 is characterized in that: The upper reflective diffusion surface (14) is provided with a plurality of parallel arc-shaped protrusions (23) arranged in an array and arranged parallel to the lower arc-shaped protrusion (18).

6. The new energy automobile lamp with large-angle front and side uniform light output according to claim 4 is characterized in that: The mounting and fixing portion (13) comprises a support surface (20) provided at the upper end of the reflector (1) and connected to the mounting cavity (12), and a plurality of positioning pins (21) and threaded fixing holes (22) provided on the support surface (20).

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