Ultra-thin Multi-optical-path Embedded Ultra-high-definition AI Street Lamp

Abstract

The ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp of the present invention includes a lamp body, and an AI light source module, an optical path module, an adjustment module, a control module and a sensing module installed on the lamp body; the AI light source module inputs and outputs dynamic and static digital information; the optical path module includes a first optical module, a second optical module and a reflective module, the reflective module is arranged between the first optical module and the second optical module, and the distances between the reflective module and the first optical module and the second optical module are adjusted by the adjustment module; the sensing module collects the digital information output to the target surface of the surrounding environment of the street lamp and transmits it to the control module, and the control module controls the adjustment module to adjust the optical path module after comparative analysis; the present invention actively displays dynamic and static digital information through the AI light source module and projects it onto the target surface around the street lamp through the optical path module, making the AI street lamp thin and light, and achieving a size that can match that of a conventional street lamp.

Description

Technical Field

[0001] The present invention relates to the technical field of street lamps, and particularly to an ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp. Background Art

[0002] At present, among numerous LED projection lamps on the market, most of them apply the principle of projectors to LED projection lamps or projection street lamps, and can only passively display pre-set text symbols, images, dynamic information, etc. More often, they are for demonstration functions. Moreover, the optical paths are too high and too long, and are all projected in a single optical path in the same direction, resulting in long and bulky lamps, which are more suitable for the simple illumination functions of downlights and stage lights and are difficult to be industrially applied to street lamps. In addition, current LED projection lamps do not have the ability to recognize the surrounding environment information, do not truly interact with the urban environment through artificial intelligence, and cannot make early warnings by learning the changes in the surrounding environment and emergencies. Summary of the Invention

[0003] The main purpose of the present invention is to overcome the above-mentioned shortcomings and deficiencies of the prior art, and to provide an ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp.

[0004] An ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp includes a lamp body, and an AI light source module, an optical path module, an adjustment module, a control module, and a sensing module installed on the lamp body;

[0005] The AI light source module can output dynamic and static digital information such as text characters, graphic images, etc. that display white light, monochromatic light, or full-color light;

[0006] The optical path module includes a first optical module, a second optical module, and a reflective module. The light output direction of the AI light source module is parallel to the extension direction of the lamp body. The first optical module is arranged in front of the AI light source module, and the distance between the first optical module and the AI light source module is adjusted by the adjustment module. The reflective module is arranged between the first optical module and the second optical module, and the distances between the reflective module and the first optical module and the second optical module are adjusted by the adjustment module;

[0007] The first optical module collimates the light emitted by the AI light source module along the extension direction of the lamp body. The reflective module reflects the collimated light beam in a direction perpendicular to the lamp body to the second optical module. The second optical module focuses or diffuses the reflected light beam and projects it onto the target surface of the surrounding environment of the street lamp, displaying dynamic and static digital information such as text characters, graphic images, etc. that display white light, monochromatic light, or full-color light;

[0008] The sensing module collects the digital information output to the target surface in the surrounding environment of the street lamp and transmits it to the control module. After comparative analysis, the control module controls the adjustment module to adjust the optical path module.

[0009] Through the dynamic and static digital information such as character graphic images actively displayed by the AI light source module of the present invention, and projected onto the target surface around the street lamp through the optical path module, functions such as prompting, informing, notifying, and warning can be given to traffic participants; moreover, the light output direction and the projection direction of the AI light source module are not in a straight line direction, which can achieve thin and light, and can achieve a size that matches that of a conventional street lamp. The installation of the AI street lamp is no different from that of an ordinary street lamp, with stable performance and conditions for industrialization and mass use; through the optical path module, the light emitted by the AI light source module can be focused, filtered, and noise-reduced, so that clear text characters, graphic images, and other dynamic and static digital information can be transmitted to the target surface at different distances at different angles. The control module controls the adjustment module to adjust the optical path module, thereby changing the focal length of the optical path module, so that high-definition dynamic and static information can be obtained on the target surface at different distances, and at the same time, the aperture size of the AI street lamp can also be changed to change the field of view size.

[0010] As a further improvement, the first optical module includes a first optical lens, and the first optical lens is a convex lens.

[0011] As a further improvement, the first optical module includes a first optical lens, and the first optical lens includes a first base and a plurality of first lenses mounted on the first base. The arrangement of the plurality of first lenses on the first base is adjustable. Preferably, the shape, size, and arrangement of the first lenses on the first base can be diversified to meet the projection optical paths of different lights. More preferably, the positions of the first lenses with different shapes on the first base can be adjusted by the adjustment module. For example, by rotating the first base, the positions of the first lenses with different shapes on the optical path can be adjusted; or, for example, a plurality of guide rails are provided on the first base, and the first lenses with different shapes are mounted on the guide rails, and the first lenses with different shapes are moved along the guide rails by mechanical transmission to adjust the positions of the first lenses with different shapes on the optical path.

[0012] As a further improvement, the first optical module further includes a second optical lens. The second optical lens is different in size from the first optical lens, and the distance between the first optical lens and the second optical lens is adjustable. The second optical lens includes a second base and a plurality of second lenses mounted on the second base. The number and shape of the second lenses are the same as or different from those of the first lens, and the arrangement of the plurality of second lenses on the second base is adjustable. Preferably, the shape, size, and arrangement of the second lenses on the second base can also be diversified to meet the projection light paths of different lights. More preferably, the positions of the second lenses with different shapes on the second base can be adjusted by an adjustment module. For example, by rotating the second base, the positions of the second lenses with different shapes on the light path can be adjusted; or, a plurality of guide rails are provided on the second base, and the second lenses with different shapes are mounted on the guide rails, and the second lenses with different shapes are moved along the guide rails by a mechanical transmission method, so that the positions of the second lenses with different shapes on the light path are adjusted. Different projection requirements can be met by adjusting the distance between the first lens and the second lens and the corresponding shapes on the same light path. The distance adjustment method between the first optical lens and the second optical lens is not limited to screw adjustment and guide rail adjustment.

[0013] As a further improvement, the reflective module is a plane mirror or a curved mirror, and the setting angle of the reflective module is finely adjusted by the adjustment module. By finely adjusting the angle of the plane mirror or the curved mirror on the light path, the angle of the light reflected by the plane mirror or the curved mirror to the second optical module changes, so as to meet different angle and size projection requirements.

[0014] As a further improvement, a plurality of optical path adjusting pieces are provided on the reflective module. The positions and angles of the optical path adjusting pieces on the plane mirror or curved mirror are adjusted by the adjusting module. By changing the positions and angles of the optical path adjusting pieces on the plane mirror or curved mirror, the light intensity and light incident angle projected onto the second optical module can be changed. By adding the optical path adjusting pieces, the reflected light can be weakened or enhanced, and the digital information differences caused by the focusing and reflection of multiple optical paths can be eliminated, making the dynamic and static digital information such as text characters and graphic images projected onto the target surface clearer and more complete. Preferably, the plurality of optical path adjusting pieces can be adaptively adjusted according to the comparison and analysis of the acquisition information of the sensing module by the control module, including the position adjustment of the optical path adjusting pieces on the reflective module and the adjustment of the included angle between the optical path adjusting pieces and the reflective module; the initial state of the optical path adjusting pieces is arranged parallel to the reflective module, and the optical path adjusting pieces can be adjusted by controlling a simple telescopic robotic arm by the control module; it can be understood that generally, the adjustment base point of the optical path adjusting pieces is the center point of the reflective module, and the initial position of the optical path adjusting pieces is located at the edge of the reflective module.

[0015] As a further improvement, the second optical module includes a third optical lens. The incident surface of the third optical lens is a plane, and the exit surface of the third optical lens is a curved surface.

[0016] As a further improvement, the second optical module includes a third optical lens. The third optical lens includes a third base and a plurality of third lenses mounted on the third base. The arrangement mode of the plurality of third lenses on the third base is adjustable.

[0017] As a further improvement, the second optical module further includes a fourth optical lens. The fourth optical lens and the third optical lens are different in size, and the distance and included angle between the fourth optical lens and the third optical lens are adjustable. The fourth optical lens includes a fourth base and a plurality of fourth lenses mounted on the fourth base. The number and shape of the fourth lenses are the same as or different from those of the third lenses. The arrangement mode of the plurality of fourth lenses on the fourth base is adjustable.

[0018] As a further improvement, the position of the AI light source module on the lamp body is adjusted by the adjusting module.

[0019] The beneficial effects of the ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp of the present invention are as follows: Compared with the prior art, the dynamic and static digital information such as character graphic images actively displayed by the AI light source module is projected onto the target surface around the street lamp through the optical path module, which can provide functions such as prompting, informing, notifying, and warning traffic participants; and the light-emitting direction of the AI light source module is not in a straight line with the projection direction, and the size can be made to match that of a conventional street lamp. The installation of the AI street lamp is no different from that of an ordinary street lamp, with stable performance and meeting the conditions for industrialization and mass use; through the optical path module, the light emitted by the AI light source module can be focused, filtered, and noise-reduced, so that clear text characters, graphic images and other dynamic and static digital information can be transmitted to the target surfaces at different distances at different angles. The control module controls the adjustment module to adjust the optical path module, thereby changing the focal length of the optical path module, so that high-definition dynamic and static information can be obtained on the target surfaces at different distances. At the same time, the aperture size of the AI street lamp can also be changed to change the field of view size. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 is a schematic structural diagram of the ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp of the present invention;

[0021] Figure 2 is Figure 1 another perspective structural diagram of the ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp of the present invention;

[0022] Figure 3 is Figure 1 a cross-sectional view of the ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp of the present invention;

[0023] Figure 4 is a schematic diagram of the AI light source module in the ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp of the present invention;

[0024] Figure 5 is an optical path diagram of the ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp of the present invention;

[0025] Figure 6 is an optical path diagram of another implementation mode of the ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp of the present invention;

[0026] Figure 7 is a schematic diagram of the first optical module in the ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp of the present invention;

[0027] Figure 8 is a schematic diagram of the second optical module in the ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0028] For the convenience of understanding the present invention, the present invention will be described more comprehensively below with reference to the relevant drawings. The preferred embodiments of the present invention are given in the drawings. However, the present invention can be implemented in many different forms and is not limited to the embodiments described herein. On the contrary, these embodiments are provided to make the disclosure of the present invention more thorough and comprehensive.

[0029] It should be noted that when an element is considered to be "connected" to another element, it can be directly connected to the other element or there may be an intermediate element present at the same time. The terms "vertical", "horizontal", "left", "right" and similar expressions used herein are for illustrative purposes only and do not represent the only embodiments.

[0030] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by those skilled in the technical field to which the present invention belongs. The terms used in the specification of the present invention herein are only for the purpose of describing specific embodiments and are not intended to limit the present invention. The term "and / or" used herein includes any and all combinations of one or more of the related listed items.

[0031] The present invention provides an ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp, including a lamp body and an AI light source module, an optical path module, an adjustment module, a control module and a sensing module installed on the lamp body;

[0032] The AI light source module can output dynamic and static digital information such as text characters, graphic images, etc. that display white light, monochromatic light or full-color light.

[0033] The optical path module includes a first optical module, a second optical module and a reflection module. The light-emitting direction of the AI light source module is parallel to the extension direction of the lamp body. The first optical module is arranged in front of the AI light source module, and the distance between the first optical module and the AI light source module is adjusted by the adjustment module. The reflection module is arranged between the first optical module and the second optical module, and the distances between the reflection module and the first optical module and the second optical module are adjusted by the adjustment module;

[0034] The first optical module collimates the light emitted by the AI light source module along the extension direction of the lamp body. The reflection module reflects the collimated light beam in a direction perpendicular to the lamp body to the second optical module. The second optical module focuses or diffuses the reflected light beam and projects it onto the target surface of the surrounding environment of the street lamp to display dynamic and static digital information such as text characters, graphic images, etc. that display white light, monochromatic light or full-color light;

[0035] The sensing module collects the digital information output to the target surface of the surrounding environment of the street lamp and transmits it to the control module. After comparative analysis, the control module controls the adjustment module to adjust the optical path module.

[0036] Through the dynamic and static digital information such as character graphic images actively displayed by the AI light source module of the present invention, and projected onto the target surface around the street lamp through the optical path module, functions such as prompting, informing, notifying, and warning can be given to traffic participants; and the light-emitting direction and projection direction of the AI light source module are not in a straight line direction, and the size can be made to match that of a conventional street lamp. The installation of the AI street lamp is no different from that of an ordinary street lamp, with stable performance and meeting the conditions for industrialization and mass use; through the optical path module, the light emitted by the AI light source module can be focused, filtered, and noise-reduced, so as to transmit clear text characters, graphic images and other dynamic and static digital information to the target surface at different distances at different angles. The control module controls the adjustment module to adjust the optical path module, thereby changing the focal length of the optical path module, so that high-definition dynamic and static information can be obtained on the target surface at different distances, and at the same time, the aperture size of the AI street lamp can also be changed to change the field of view. Embodiment

[0037] Please refer to Figures 1 to 4 , an embodiment of the present invention provides a thin multi-optical path embedded ultra-high definition AI street lamp (hereinafter referred to as "AI street lamp") 100, which includes a lamp body 1 and an AI light source module 2, an optical path module 3, an adjustment module 4, a control module 5, a sensing module 6, a light control module 7 and a power module 8 installed on the lamp body 1. The power module 8 supplies power to the AI light source module 2, the optical path module 3, the adjustment module 4, the control module 5, the sensing module 6 and the light control module 7. The light control module 7 is arranged above the lamp body 1, and the sensing module 6 is arranged below the lamp body 1. The AI light source module 2, the optical path module 3, the adjustment module 4, the control module 5 and the power module 8 are arranged inside the lamp body 1. Preferably, the interior of the lamp body 1 is a through type. Preferably, the position of the AI light source module 2 on the lamp body 1 is adjusted by the adjustment module 4, which is only limited to fine adjustment in the horizontal position direction between the optical path module 3 and can be adjusted by a threaded method. Among them, please refer to Figure 4 , the AI light source module 2 includes a plurality of micro LED chips arranged in an array, that is, a plurality of micro LED pixel light-emitting points, and the shape of the AI light source module 2 is not limited to circular, square or oval.

[0038] More specifically, the AI light source module 2 can output dynamic and static digital information such as text characters, graphic images, etc. that display white light, monochromatic light, or full-color light. Preferably, the AI street lamp 100 can also communicate remotely with the cloud platform. Through the huge network nodes of the street lamp, it can output to surrounding or relevant traffic participants, enabling the participants to know in advance the real-time conditions of the front or surrounding environment, allowing the participants to make advance judgments or adjustments, etc., which is beneficial to traffic safety, congestion relief, early warning and solution of emergencies, etc.

[0039] More specifically, please refer to Figures 4 to 6 , the optical path module 3 includes a first optical module 31, a second optical module 32, and a reflective module 33. The light-emitting direction of the AI light source module 2 is parallel to the extending direction of the lamp body 1. The first optical module 31 is arranged in front of the AI light source module 2, and the distance between the first optical module 31 and the AI light source module 2 is adjusted by the adjustment module 4. The reflective module 33 is arranged between the first optical module 31 and the second optical module 32, and the distances between the reflective module 33 and the first optical module 31 and the second optical module 32 are adjusted by the adjustment module 4.

[0040] Among them, the first optical module 31 collimates the light emitted by the AI light source module 2 along the extending direction of the lamp body 1. The reflective module 33 reflects the collimated light beam in a direction perpendicular to the lamp body 1 to the second optical module 32. The second optical module 32 focuses or diffuses the reflected light beam and projects it onto the target surface of the surrounding environment of the street lamp, displaying dynamic and static digital information such as text characters, graphic images, etc. that display white light, monochromatic light, or full-color light.

[0041] Preferably, the sensing module 6 collects the digital information output to the target surface of the surrounding environment of the street lamp and transmits it to the control module 5. After comparative analysis, the control module 5 controls the adjustment module 4 to adjust the optical path module 3. Among them, if the digital information output to the target surface is partially unclear, the projection position is deviated, the projection distance is too short, etc., the first optical module 31, the second optical module 32, and the reflective module 33 in the optical path module 3 can be adaptively adjusted.

[0042] The dynamic and static digital information such as the character graphics image actively displayed by the AI light source module 2 of the present invention is projected onto the target surface around the street lamp through the optical path module 3, which can provide functions such as prompting, informing, notifying, and warning traffic participants; and the light emitting direction of the AI light source module 2 and the projection direction are not in a straight line direction, and the size can be made to match that of a conventional street lamp. The installation of the AI street lamp is no different from that of an ordinary street lamp, with stable performance and meeting the conditions for industrialization and mass use; through the optical path module 3, the light emitted by the AI light source module can be focused, filtered, and noise-reduced, so that clear text characters, graphic images, and other dynamic and static digital information can be transmitted to the target surface at different distances at different angles. The control module 5 controls the adjustment module 4 to adjust the optical path module 3, thereby changing the focal length of the optical path module 3, so that high-definition dynamic and static information can be obtained on the target surface at different distances. At the same time, the aperture size of the AI street lamp can also be changed to change the field of view size.

[0043] More specifically, please refer to Figure 5 and Figure 6 , the first optical module 31 includes a first optical lens 311, and the first optical lens 311 is a convex lens. Preferably, in another embodiment of the present invention, the first optical module 31 includes a first optical lens 311, and the first optical lens 311 includes a first base 3111 and a plurality of first lenses 3112 mounted on the first base 3111, and the arrangement of the plurality of first lenses 3112 on the first base 3111 is adjustable. Preferably, the shape, size, and arrangement of the first lenses 3112 on the first base 3111 can be diversified to meet the projection optical paths of different lights. The shape of the first lenses 3112 includes, but is not limited to, convex lenses, concave lenses, free-form lenses, or combinations of any two of the above. More preferably, the positions of the first lenses 3112 with different shapes on the first base 3111 can be adjusted by the adjustment module 4. For example, by rotating the first base 3111, the positions of the first lenses 3112 with different shapes on the optical path can be adjusted; or, a plurality of guide rails (not shown in the figure) are provided on the first base 3111, and the first lenses 3112 with different shapes are mounted on the guide rails, and the first lenses 3112 with different shapes are moved along the guide rails by mechanical transmission, so that the positions of the first lenses 3112 with different shapes on the optical path can be adjusted.

[0044] More preferably, please refer to Figures 5 to 7, the first optical module 31 further includes a second optical lens 312. The second optical lens 312 is different in size from the first optical lens 311, and the distance between the first optical lens 311 and the second optical lens 312 is adjustable. The second optical lens 312 includes a second base 3121 and a plurality of second lenses 3122 mounted on the second base 3121. The number and shape of the second lenses 3122 are the same as or different from those of the first lens 3112, and the arrangement of the plurality of second lenses 3122 on the second base 3121 is adjustable. The shape of the second lens 3122 includes, but is not limited to, a convex lens, a concave lens, a free-form surface lens, or a combination of any two of the above.

[0045] More specifically, please refer to Figure 4 , Figure 5 and Figure 6 , the reflection module 33 is a plane mirror or a curved mirror, and the setting angle of the reflection module 33 is finely adjusted by the adjustment module 4. Preferably, a plurality of optical path adjustment pieces 331 are provided on the reflection module 33, and the position and angle of the optical path adjustment pieces 331 on the plane mirror or the curved mirror are adjusted by the adjustment module 4. By changing the position and angle of the optical path adjustment pieces 331 on the plane mirror or the curved mirror, the light intensity and the light incident angle projected onto the second optical module 32 can be changed. Preferably, the reflection module 33 includes a plurality of lenses with different shapes, and the surface of the lens can be a convex surface, a concave surface, a multi-convex-concave combined surface, a multi-group stepped surface, or a free-form surface. The arrangement of the plurality of lenses can be arranged in a circular array or a rectangular array, or can be freely arranged according to different optical path requirements. By setting lenses with different shapes, different-angle optical path projections can be corresponding to the light emitted from different pixel points in the AI light source module 2. More preferably, by finely adjusting the reflection module 33 with lenses of different shapes by the adjustment module 4, the focusing and divergence of different optical paths can be changed again, realizing the adjustment of multiple optical paths and multiple angles to meet different projection requirements.

[0046] Among them, by increasing the optical path adjustment pieces 331, the reflected light can be weakened or enhanced, eliminating the digital information differences caused by the focusing and reflection of multiple optical paths, making the dynamic and static digital information such as text characters and graphic images projected onto the target surface clearer and more complete. Preferably, the plurality of optical path adjustment pieces 331 can be adaptively adjusted according to the comparison and analysis of the acquisition information of the sensing module 6 by the control module 5, including the position adjustment of the optical path adjustment pieces 331 on the reflection module 33 and the adjustment of the included angle between the optical path adjustment pieces 331 and the reflection module 33; the initial state of the optical path adjustment pieces 331 is set parallel to the reflection module 33, and the optical path adjustment pieces 331 can be telescopically adjusted by controlling a simple telescopic robotic arm by the control module 5; it can be understood that generally, the adjustment base point of the optical path adjustment pieces 331 is the center point of the reflection module 33, and the initial position of the optical path adjustment pieces 331 is located at the edge of the reflection module 33.

[0047] More specifically, please refer to Figure 5 , Figure 6 and Figure 8 , the second optical module 32 includes a third optical lens 321. The incident surface of the third optical lens 321 is a plane, and the exit surface of the third optical lens 321 is a convex lens. Preferably, in another embodiment of the present invention, the second optical module 32 includes a third optical lens 321, and the third optical lens 321 includes a third base 3211 and a plurality of third lenses 3212 mounted on the third base 3211. The arrangement of the plurality of third lenses 3212 on the third base 3211 is adjustable.

[0048] More preferably, please refer to Figure 8 , the second optical module 32 further includes a fourth optical lens 322. The fourth optical lens 322 and the third optical lens 321 are different in size, and the distance and angle between the fourth optical lens 322 and the third optical lens 321 are adjustable. The fourth optical lens 322 includes a fourth base 3221 and a plurality of fourth lenses 3222 mounted on the fourth base 3221. The number and shape of the fourth lenses 3222 are the same as or different from those of the third lenses 3212. The arrangement of the plurality of fourth lenses 3222 on the fourth base 3221 is adjustable. Among them, the shape of the fourth lens 3222 includes but is not limited to a convex lens, a concave lens, a free-form surface lens, or a combination of any two of the above, and the outer shape is not limited to a circle or a square. It can be understood that the adjustment of the distance between the fourth optical lens 322 and the third optical lens 321 and the adjustment of the arrangement are similar to those of the first optical module 31, which will not be elaborated here. Among them, since the second optical module 32 is located outside the lamp body 1 and the projection direction needs to be adjusted, large-angle projection can be achieved by rotating the polarized fourth lens 3222, or by rotating the fourth base 3221 and the third base 3211, so as to make large-angle projection. The rotation methods include a serrated type or a sliding groove type or a combination of both. The commonly used serrated rotation can refer to the adjustment methods of industrial and mining lamps or tunnel lamps, and the sliding groove type rotation can refer to the adjustment methods of track spotlights or downlights, which will not be elaborated here.

[0049] In the present invention, through the combination of the second lens module 32, the reflective module 33, and the optical path adjustment sheet 331 on the reflective module 33, the adjustment module 4 is used to adjust the optical path module 3 to realize the variable of the reflective module 33 and the variable change of the second lens module 32, thereby changing the focusing and divergence of the optical path; the pixel points of the AI light source module 2 can be divided into regions and grouped for multi-region light control, and can be directed to project to the directional area of the target surface around the street lamp, and the projection angle, the size of the projection area, the intensity of the projection light, etc. can be adjusted.

[0050] The technical features of the above-described embodiments can be combined arbitrarily. For the sake of brevity of description, not all possible combinations of the technical features in the above-described embodiments are described. However, as long as there is no contradiction in the combination of these technical features, it should be considered as the scope described in this specification.

[0051] The above-described embodiments merely represent several implementation manners of the present invention. The description is relatively specific and detailed, but it should not be construed as a limitation on the scope of the invention patent. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present invention, several modifications and improvements can still be made, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the present invention patent shall be subject to the appended claims.

Claims

1. An ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp, characterized in that, Including: A lamp body and an AI light source module, an optical path module, an adjustment module, a control module, and a sensing module installed on the lamp body; The AI light source module outputs text characters, graphic images displaying white light, monochromatic light, or full-color light; The optical path module includes a first optical module, a second optical module, and a reflecting module. The light-emitting direction of the AI light source module is parallel to the extending direction of the lamp body. The first optical module is arranged in front of the AI light source module, and the distance between the first optical module and the AI light source module is adjusted by the adjustment module. The reflecting module is arranged between the first optical module and the second optical module, and the distances between the reflecting module and the first optical module and the second optical module are adjusted by the adjustment module; The first optical module collimates the light emitted by the AI light source module along the extending direction of the lamp body. The reflecting module reflects the collimated light beam in a direction perpendicular to the lamp body to the second optical module. The second optical module concentrates or diffuses the reflected light beam and projects it onto the target surface output to the surrounding environment of the street lamp, displaying text characters, graphic images of white light, monochromatic light, or full-color light; The sensing module collects the text character and graphic image information output to the target surface of the surrounding environment of the street lamp and transmits it to the control module. After comparative analysis, the control module controls the adjustment module to adjust the optical path module; The reflecting module is a plane reflecting mirror or a curved reflecting mirror, and the setting angle of the reflecting module is finely adjusted by the adjustment module; a plurality of optical path adjustment pieces are provided on the reflecting module, and the position and angle of the optical path adjustment pieces on the plane reflecting mirror or the curved reflecting mirror are adjusted by the adjustment module. The light intensity and the light incident angle projected onto the second optical module are changed by changing the position and angle of the optical path adjustment pieces on the plane reflecting mirror or the curved reflecting mirror; the optical path adjustment pieces are adaptively adjusted according to the comparative analysis of the acquisition information of the sensing module by the control module, including the position adjustment of the optical path adjustment pieces on the reflecting module. The initial state of the optical path adjustment pieces is arranged parallel to the reflecting module. The optical path adjustment pieces are adjusted by controlling the telescopic robotic arm by the control module. The adjustment base point of the optical path adjustment pieces is the center point of the reflecting module, and the initial position of the optical path adjustment pieces is located at the edge of the reflecting module.

2. The ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp according to claim 1, characterized in that, The first optical module includes a first optical lens, and the first optical lens is a convex lens.

3. The ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp according to claim 1, wherein The first optical module includes a first optical lens, and the first optical lens includes a first base and a plurality of first lenses installed on the first base. The arrangement mode of the plurality of first lenses on the first base is adjustable.

4. The ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp according to claim 3, wherein, The first optical module further includes a second optical lens. The second optical lens is different in size from the first optical lens, and the distance between the first optical lens and the second optical lens is adjustable. The second optical lens includes a second base and a plurality of second lenses mounted on the second base. The number and shape of the second lenses are the same as or different from those of the first lens, and the arrangement of the plurality of second lenses on the second base is adjustable.

5. The ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp according to claim 1, characterized in that, The second optical module includes a third optical lens. The incident surface of the third optical lens is a plane, and the exit surface of the third optical lens is a curved surface.

6. The ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp according to claim 1, characterized in that, The second optical module includes a third optical lens. The third optical lens includes a third base and a plurality of third lenses mounted on the third base. The arrangement of the plurality of third lenses on the third base is adjustable.

7. The ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp according to claim 6, characterized in that, The second optical module further includes a fourth optical lens. The fourth optical lens is different in size from the third optical lens, and the distance and angle between the fourth optical lens and the third optical lens are adjustable. The fourth optical lens includes a fourth base and a plurality of fourth lenses mounted on the fourth base. The number and shape of the fourth lenses are the same as or different from those of the third lens, and the arrangement of the plurality of fourth lenses on the fourth base is adjustable.

8. The ultra-thin multi-optical-path embedded ultra-high-definition AI street lamp according to claim 1, characterized in that, The position of the AI light source module on the lamp body is adjusted by the adjustment module.

Images