Modularized conversion assembly for low-power-consumption outdoor lighting and intelligent control method

Abstract

The invention discloses a modular conversion assembly for low-power-consumption outdoor lighting and an intelligent control method, the modular conversion assembly comprises a carrier, a solar power supply system is arranged in the carrier, and a plurality of angle-adjustable lighting lamp holders are arranged on the periphery of the carrier; a switchable lamp set mechanism capable of switching different lighting lamps according to the annular shape is arranged in the angle-adjustable lighting lamp holder, and a conductive system capable of supplying power to the switchable lamp set mechanism is arranged between the solar power supply system and the angle-adjustable lighting lamp holder. The carrier is provided with an angle control assembly used for synchronously controlling the angle-adjustable lighting lamp holders to adjust the surrounding lighting angles, the intelligent control system based on multi-dimensional environment perception is provided, dynamic adjustment of the semiconductor light source and the angles is achieved, and the lighting effect and the energy-saving requirement are both considered.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of outdoor lighting control, and particularly relates to a modular conversion assembly of low-power outdoor lighting and an intelligent control method. BACKGROUND

[0002] Outdoor lighting equipment is widely used in public areas such as roads, squares and parks. Traditional outdoor lighting adopts a design of fixed light source and fixed angle, and relies on mains power supply. The following defects exist: first, the lighting mode is single, and cannot adapt to different meteorological conditions such as fog and rain, for example, light penetration is insufficient in foggy weather, and glare is easy to occur in rainy weather, which affects the safety of lighting; second, the fixed angle leads to a mismatch between the lighting range and the actual demand, and the high brightness lighting is maintained when there is no one, which causes serious energy waste.

[0003] In view of the above problems, an intelligent control system capable of dynamically adjusting the lighting state according to the environment is urgently needed to improve the adaptability, safety and energy saving of outdoor lighting.

[0004] Therefore, the existing outdoor lighting control technology field needs to be further improved. SUMMARY

[0005] The purpose of the present application is to provide a modular conversion assembly of low-power outdoor lighting and an intelligent control method, to provide an intelligent control system based on multi-dimensional environmental perception, to realize dynamic adjustment of semiconductor light source and angle, and to balance lighting effect and energy saving demand.

[0006] In order to achieve the above purpose, the following scheme is adopted: A modular conversion assembly of low-power outdoor lighting, comprising a carrier, a solar power supply system is arranged in the carrier, a plurality of adjustable angle lighting lamp stands are arranged around the carrier, a switchable lamp group mechanism capable of switching different lighting lamps according to a ring is arranged in the adjustable angle lighting lamp stand, a conductive system capable of supplying power to the switchable lamp group mechanism is arranged between the solar power supply system and the adjustable angle lighting lamp stand, an angle control assembly for synchronously controlling a plurality of the adjustable angle lighting lamp stands to adjust the lighting angle around is arranged on the carrier, an axial telescopic adjusting rod is arranged at the hinge shaft of the adjustable angle lighting lamp stand, a holding control connecting rod capable of always controlling the switchable lamp group mechanism to switch at different inclination angles is arranged between the axial telescopic adjusting rod and the switchable lamp group mechanism, and a synchronous telescopic connecting rod assembly for controlling a plurality of the axial telescopic adjusting rods to synchronously telescope clockwise or counterclockwise is arranged on the carrier.

[0007] Further, the solar power supply system comprises a battery pack arranged in the carrier, a solar panel is arranged on the carrier, and the solar panel is electrically connected to the battery pack.

[0008] Further, the adjustable angle lighting lamp stand is four respectively arranged in four directions of the carrier; The adjustable angle lighting lamp stand comprises a hinged shaft sleeve arranged on the carrier, a rotating shaft body rotatably arranged on the hinged shaft sleeve, and a turnover lamp shell arranged on the rotating shaft body.

[0009] Further, the switchable lamp group mechanism comprises a vertical sliding groove arranged in the turnover lamp shell, a vertical sliding block movably arranged in the vertical sliding groove, an active lamp plate arranged on the vertical sliding block, a plurality of semiconductor light sources of different lighting modes arranged on the active lamp plate in the height direction, a front baffle arranged on the turnover lamp shell for shielding a plurality of semiconductor light sources, and a light-transmitting slot arranged on the front baffle for exposing one of the semiconductor light sources. The three semiconductor light sources are respectively a haze special semiconductor light source, an anti-glare flow guiding semiconductor light source, and an energy-saving sensing semiconductor light source.

[0010] Further, the conductive system comprises a first conductive ring arranged on the inner wall of the hinged shaft sleeve, a second conductive ring arranged on the outer wall of the rotating shaft body, and the first conductive ring and the second conductive ring are conductively connected, the first conductive ring is electrically connected to the solar power supply system, each of the semiconductor light sources is provided with a conductive piece group, the turnover lamp shell is provided with an elastic conductive piece at the position aligned with the light-transmitting slot, the elastic conductive piece is electrically connected with the conductive piece group on the corresponding one of the semiconductor light sources at the same height, and the second conductive ring is electrically connected to the elastic conductive piece.

[0011] Further, the angle control assembly comprises a lifting connection frame arranged on the carrier, a lifting cylinder assembly arranged on the carrier, an output end of the lifting cylinder assembly connected to the lifting connection frame, four first hinged seats uniformly arranged around the lifting connection frame, a second hinged seat arranged on the back of the turnover lamp shell, and a control connecting rod hinged between the first hinged seat and the corresponding second hinged seat.

[0012] Further, the axial telescopic adjusting rod comprises an axial guide hole arranged at the axis of the rotating shaft body, and an axial adjusting shaft movably arranged in the axial guide hole.

[0013] Further, the holding control connecting rod comprises a synchronous ring type slot arranged at one end of the axial adjusting shaft, a synchronous adjusting ring rotatably arranged in the synchronous ring type slot, a first hinged part arranged on the side wall of the vertical sliding block, a second hinged part arranged on the synchronous adjusting ring, and a push-pull connecting rod hinged between the first hinged part and the corresponding second hinged part.

[0014] Further, the synchronous telescopic linkage assembly comprises a rotating ring assembly arranged at the bottom of the carrier, an inner gear is arranged on the inner wall of the rotating ring assembly, a reversible motor is arranged at the bottom of the carrier, a driving gear capable of meshing with the inner gear is arranged at the output end of the reversible motor, four eccentric hinge ends are uniformly distributed around the central circumference of the rotating ring assembly at the end face of the rotating ring assembly, and a synchronous linkage is hingedly connected between the eccentric hinge end and the corresponding control hinge end of the axial adjusting shaft.

[0015] The intelligent control system further comprises a control module, a multi-dimensional environment sensing module and an energy-saving regulation module; the control module is in communication connection with the multi-dimensional environment sensing module, the energy-saving regulation module, the lifting cylinder assembly of the modular conversion assembly, the reversible motor and the solar power supply system; The multi-dimensional environment sensing module comprises a haze concentration sensor, a rainfall sensor, an ambient light intensity sensor and a human body infrared sensing sensor arranged at the top of the carrier, each sensor is used for collecting real-time haze index, rainfall state, natural illumination and personnel activity level data of an outdoor environment and feeding back to the control module. The energy-saving regulation module is electrically connected with the battery pack of the solar power supply system and is used for monitoring the residual capacity of the battery pack and feeding back to the control module.

[0016] In summary, the present application has the following advantages over the prior art: The present application solves the problems existing in the prior art of outdoor lighting control technology. Through the structural arrangement of the present application, the following advantages are achieved: the multi-dimensional environment sensor is used to monitor meteorological and personnel data in real time, the automatic matching of the semiconductor light source and the angle in different scenes such as haze and rainy days is realized, the problem of single traditional lighting mode is solved, and the lighting safety and effectiveness in each environment are improved. The on-demand lighting is realized by combining human body sensing and power monitoring, the power is automatically reduced or the light source is automatically turned off when there is no human activity, the protection mechanism is started when the power is low, and the solar power supply system is used to greatly reduce energy consumption and realize long-term low-power operation. The lamp holder can be retracted to reduce wind resistance and avoid structural damage in extreme weather, thereby prolonging the service life of the equipment. The mechanical linkage and electronic control are combined to realize synchronous and precise control of light source switching and angle adjustment, and the control module is provided with multiple logic safeguards to ensure the stability and reliability of command execution. BRIEF DESCRIPTION OF DRAWINGS

[0017] Figure 1 It is a first state front view of the present application. Figure 2 It is a second state front view of the present application. Figure 3 It is a perspective view of the present application. Figure 4isometric view of the internal structure of the present application; Figure 5 axial adjustment shaft sectional view of the present application; Figure 6 isometric view of the present application Figure 5 enlarged view of A; Figure 7 isometric view of the present application Figure 5 enlarged view of B; Figure 8 bottom view of the present application; Figure 9 switchable lamp group mechanism sectional view of the present application; Figure 10 sectional view of the present application; Figure 11 intelligent control system structure schematic diagram of the present application. DETAILED DESCRIPTION

[0018] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only a part of the embodiments of the present application, rather than all the embodiments of the present application. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art without creative work fall within the protection scope of the present application.

[0019] Please refer to Figures 1-11The application provides a modular conversion assembly for low-power outdoor lighting, comprising a carrier 1, wherein a solar power supply system 4 is arranged in the carrier 1, a plurality of adjustable-angle lighting lamp stands 2 are arranged around the carrier 1, a switchable lamp group mechanism 3 capable of switching different lighting lamps according to a ring type is arranged in the adjustable-angle lighting lamp stand 2, a conductive system 5 capable of supplying power to the switchable lamp group mechanism 3 is arranged between the solar power supply system 4 and the adjustable-angle lighting lamp stand 2, an angle control assembly 6 for synchronously controlling the adjustment of the lighting angles of the plurality of adjustable-angle lighting lamp stands 2 around the carrier 1 is arranged on the carrier 1, an axial telescopic adjusting rod 7 is arranged at the hinge shaft of the adjustable-angle lighting lamp stand 2, a holding control connecting rod 8 capable of controlling the switching of the switchable lamp group mechanism 3 at different inclination angles is arranged between the axial telescopic adjusting rod 7 and the switchable lamp group mechanism 3, and a synchronous telescopic connecting rod assembly 9 for controlling the synchronous telescoping of the plurality of axial telescopic adjusting rods 7 in the clockwise or counterclockwise direction is arranged on the carrier 1; the modular conversion assembly for low-power outdoor lighting takes the carrier 1 as the installation basis, the solar power supply system 4 in the carrier 1 provides energy for the whole, the plurality of adjustable-angle lighting lamp stands 2 around the carrier 1 serve as lighting execution units, the switchable lamp group mechanism 3 in the adjustable-angle lighting lamp stand 2 can realize the switching of different lighting lamps, the solar power supply system 4 continuously supplies power to the switchable lamp group mechanism 3 through the conductive system 5, so that the power supply is not interrupted during the adjustment process, the angle control assembly 6 on the carrier 1 can synchronously adjust the lighting angles of the plurality of adjustable-angle lighting lamp stands 2 and adapt to different range requirements, the axial telescopic adjusting rod 7 at the hinge shaft of the adjustable-angle lighting lamp stand 2 is connected with the switchable lamp group mechanism 3 through the holding control connecting rod 8, so that the switchable lamp group mechanism 3 switches different light sources under different inclination angles of the adjustable-angle lighting lamp stand 2, and the synchronous telescopic connecting rod assembly 9 on the carrier 1 controls the synchronous telescoping of the plurality of axial telescopic adjusting rods 7, thereby realizing the collaborative adjustment of multiple lamp groups.

[0020] The solar power supply system 4 comprises a battery pack 401 arranged in the carrier 1, a solar panel 402 arranged on the carrier 1 and electrically connected to the battery pack 401; the solar power supply system 4 realizes energy supply through the conversion of “light energy-electric energy-chemical energy”; the solar panel 402 on the carrier 1 receives sunlight and converts it into electric energy, the electric energy is directly transmitted to the battery pack 401 in the carrier 1 for storage, and the battery pack 401 supplies power to subsequent electric components, thereby forming an independent solar power supply closed loop and guaranteeing the low-power operation of the assembly.

[0021] The adjustable-angle lighting lamp stand 2 is arranged in four directions of the carrier 1 respectively. The adjustable angle illuminating lamp stand 2 comprises a hinged shaft sleeve 201 arranged on the carrier 1, a rotating shaft body 202 rotatably arranged on the hinged shaft sleeve 201, and a turnover lamp shell 203 arranged on the rotating shaft body 202; four adjustable angle illuminating lamp stands 2 are arranged on the four directions of the carrier 1 to realize full range coverage; the hinged shaft sleeve 201 of the adjustable angle illuminating lamp stand 2 is fixed to the carrier 1, and the rotating shaft body 202 is rotatably arranged in the hinged shaft sleeve 201, so that the turnover lamp shell 203 on the rotating shaft body 202 can rotate around the hinged shaft sleeve 201 to provide mechanical structural support for illumination angle adjustment.

[0022] The switchable lamp group mechanism 3 comprises a vertical sliding groove 301 arranged in the turnover lamp shell 203, a vertical sliding block 302 movably arranged in the vertical sliding groove 301, an active lamp plate 303 arranged on the vertical sliding block 302, a plurality of semiconductor light sources 304 of different illumination modes arranged on the active lamp plate 303 in the height direction, a front baffle 305 arranged on the turnover lamp shell 203 for shielding the plurality of semiconductor light sources 304, and a light-transmitting slot 306 arranged on the front baffle 305 and capable of exposing one of the semiconductor light sources 304. The three semiconductor light sources 304 are respectively a haze special-purpose semiconductor light source 100, an anti-dazzle flow guiding semiconductor light source 200, and an energy-saving sensing semiconductor light source 300; the vertical sliding block 302 in the turnover lamp shell 203 can move up and down along the vertical sliding groove 301, and the vertical sliding block 302 drives the active lamp plate 303 on it to move synchronously; the haze special-purpose semiconductor light source 100, the anti-dazzle flow guiding semiconductor light source 200, and the energy-saving sensing semiconductor light source 300 on the active lamp plate 303 rise and fall along with the active lamp plate 303; the front baffle 305 on the turnover lamp shell 203 shields the semiconductor light sources 304 that are not aligned, only the semiconductor light source 304 aligned with the light-transmitting slot 306 of the front baffle 305 can emit light outward, and the switching of different illumination modes is realized.

[0023] The conductive system 5 comprises a first conductive ring 501 arranged on the inner wall of the hinged shaft sleeve 201, the outer wall of the rotating shaft body 202 is provided with a second conductive ring 502, the first conductive ring 501 and the second conductive ring 502 are conductively connected, the first conductive ring 501 is electrically connected to the solar power supply system 4, each of the semiconductor light sources 304 is provided with a conductive piece group 503, the elastic conductive piece 504 arranged at the position aligned with the light-transmitting slot 306 of the turnover lamp shell 203 is electrically connected with the conductive piece group 503 on the corresponding one of the semiconductor light sources 304 of the same height, and the second conductive ring 502 is electrically connected to the elastic conductive piece 504; the first conductive ring 501 on the inner wall of the hinged shaft sleeve 201 and the second conductive ring 502 on the outer wall of the rotating shaft body 202 are kept in conductive connection, forming a power supply path in the rotating state; the first conductive ring 501 is connected to the solar power supply system 4 to obtain electric energy, the electric energy is transmitted to the elastic conductive piece 504 in the turnover lamp shell 203 through the second conductive ring 502, and the elastic conductive piece 504 is in contact with the conductive piece group 503 of the semiconductor light source 304 aligned with the light-transmitting slot 306, thereby accurately supplying power to the currently working semiconductor light source 304.

[0024] The angle control assembly 6 comprises a lifting connection frame 601 arranged on the carrier 1, a lifting cylinder assembly 602 is arranged on the carrier 1, the output end of the lifting cylinder assembly 602 is connected to the lifting connection frame 601, four first hinged seats 603 are uniformly arranged around the lifting connection frame 601, a second hinged seat 604 is arranged on the back of the turnover lamp shell 203, and a control connecting rod 605 is hinged between the first hinged seat 603 and the corresponding second hinged seat 604; the lifting cylinder assembly 602 on the carrier 1 drives the lifting connection frame 601 to lift, the first hinged seat 603 around the lifting connection frame 601 pulls or pushes the second hinged seat 604 on the back of the turnover lamp shell 203 through the control connecting rod 605, the turnover lamp shell 203 is rotated around the rotating shaft body 202 through the connecting rod transmission, and synchronous angle adjustment of the multiple adjustable-angle lighting lamp stands 2 is realized.

[0025] The axial telescopic adjusting rod 7 comprises an axial guide hole 701 arranged at the shaft center of the rotating shaft body 202, and an axial adjusting shaft 702 movably arranged in the axial guide hole 701; the axial guide hole 701 at the shaft center of the rotating shaft body 202 provides a movable channel for the axial adjusting shaft 702, the axial adjusting shaft 702 can reciprocatingly extend and retract along the axial guide hole 701, power of the synchronous telescopic connecting rod assembly 9 is transmitted to the holding control connecting rod 8, and axial driving force is provided for light source switching.

[0026] The holding control connecting rod 8 comprises a synchronous ring type slot 801 arranged at one end of the axial adjusting shaft 702, a synchronous adjusting ring 802 rotatably arranged in the synchronous ring type slot 801, a first hinged part 803 arranged on the side wall of the vertical sliding block 302, a second hinged part 804 arranged on the synchronous adjusting ring 802, and a push-pull connecting rod 805 hinged between the first hinged part 803 and the corresponding second hinged part 804. The synchronous adjusting ring 802 can rotate with the turnover lamp shell 203, and the vertical sliding block 302 can be driven by the axial movement of the axial adjusting shaft 702, the synchronous ring type slot 801 and the synchronous adjusting ring 802 to complete gear adjustment at any angle of the turnover lamp shell 203. The synchronous adjusting ring 802 at one end of the axial adjusting shaft 702 can rotate freely in the synchronous ring type slot 801 and adaptively adjust the posture with the angle change of the turnover lamp shell 203. When the axial adjusting shaft 702 is extended or retracted, the synchronous adjusting ring 802 drives the push-pull connecting rod 805 through the second hinged part 804, and the push-pull connecting rod 805 pulls the vertical sliding block 302 through the first hinged part 803, so that the vertical sliding block 302 can stably drive the movable lamp plate 303 to complete light source switching at any inclination angle of the turnover lamp shell 203.

[0027] The synchronous telescopic connecting rod assembly 9 comprises a rotating ring assembly 901 arranged at the bottom of the carrier 1, an internal gear 902 arranged on the inner wall of the rotating ring assembly 901, a forward-reverse motor 903 arranged at the bottom of the carrier 1, a driving gear 904 arranged at the output end of the forward-reverse motor 903 and capable of meshing and driving the internal gear 902, four eccentric hinged ends 907 evenly distributed around the center circumference of the rotating ring assembly 901 at the end face of the rotating ring assembly 901, a control hinged end 905 arranged on the axial adjusting shaft 702, and a synchronous connecting rod 906 hinged between the eccentric hinged end 907 and the corresponding control hinged end 905. The forward-reverse motor 903 at the bottom of the carrier 1 drives the driving gear 904 to rotate, the driving gear 904 meshes with the internal gear 902 on the inner wall of the rotating ring assembly 901, and the rotating ring assembly 901 rotates. The eccentric hinged end 907 at the end face of the rotating ring assembly 901 pulls the control hinged end 905 of the axial adjusting shaft 702 through the synchronous connecting rod 906, and utilizes eccentric transmission to make the four axial adjusting shafts 702 synchronously extend and retract.

[0028] The intelligent control system further comprises a control module 400, a multi-dimensional environment sensing module 500 and an energy-saving regulation module 600; the control module 400 is in communication connection with the multi-dimensional environment sensing module 500, the energy-saving regulation module 600, a lifting cylinder assembly 602 of a modular conversion assembly, a forward-reverse motor 903 and a solar power supply system 4 respectively; The multi-dimensional environmental sensing module 500 includes a haze concentration sensor 510, a rainfall sensor 520, an ambient light intensity sensor 530, and a human infrared sensor 540, which are set on the top of the carrier 1. Each sensor is used to collect haze index, rainfall status, natural light intensity, and human activity level data of the outdoor environment in real time and feed them back to the control module. The energy-saving control module 600 is electrically connected to the battery pack 401 of the solar power supply system 4, and is used to monitor the remaining power of the battery pack 401 and feed it back to the control module.

[0029] The control module 400 incorporates ambient lighting matching logic, power protection logic, and windproof protection logic. The specific control strategy is as follows: When the haze concentration sensor 510 detects that the environmental haze index is higher than the preset threshold, the control module drives the forward and reverse motor 903 to operate. Through the synchronous telescopic linkage assembly 9, the axial telescopic adjustment rod 7 and the holding control linkage 8, the switchable lamp group mechanism 3 is switched to the haze-specific semiconductor light source 100. At the same time, the lifting cylinder assembly 602 is controlled to drive the angle control assembly 6 to adjust the adjustable angle lighting lamp holder 2 to the preset wide-angle lighting tilt angle. When the rain sensor 520 detects rainfall and the ambient light intensity sensor 530 detects that the natural light intensity is lower than the nighttime threshold, the control module drives the switchable lamp group mechanism 3 to switch to the anti-glare guiding semiconductor light source 200, and at the same time instructs the angle control component 6 to adjust the adjustable angle lighting fixture 2 to a low elevation angle and anti-glare tilt angle. When the ambient light intensity sensor 530 detects that the natural light intensity is lower than the normal nighttime threshold and there is no fog or rain, if the human infrared sensor 540 does not detect human activity, the control module drives the switchable lamp group mechanism 3 to switch to the low-power standby mode of the energy-saving sensing semiconductor light source 300; if human activity is detected, it switches to the normal lighting mode of the energy-saving sensing semiconductor light source 300, and at the same time, the lighting angle of the adjustable angle lighting fixture 2 is finely adjusted by the angle control component 6 according to the range of human activity. When the energy-saving control module detects that the remaining power of the battery pack 401 is lower than the preset low power threshold, the control module automatically reduces the power output of all semiconductor light sources 304, turns off the wide-angle lighting mode, retains only the basic lighting directly below the carrier 1, and prioritizes the triggering logic of the energy-saving sensing semiconductor light source 300.

[0030] The above shows and describes the basic principles and main features of the present application and the advantages of the present application, and those skilled in the art should understand that the present application is not limited to the above embodiments, and the above embodiments and descriptions in the specification are only to illustrate the principles of the present application, and various changes and improvements can be made without departing from the spirit and scope of the present application, and these changes and improvements all fall within the scope of the claimed present application. The scope of protection of the present application is defined by the appended claims and their equivalents.

Claims

1. A modular conversion component for low-power outdoor lighting, comprising a carrier (1), wherein a solar power supply system (4) is disposed within the carrier (1), characterized in that: The carrier (1) is provided with multiple adjustable angle lighting fixtures (2) around its perimeter. The adjustable angle lighting fixtures (2) are provided with a switchable lamp group mechanism (3) that can switch different lighting fixtures according to the ring shape. A conductive system (5) that can supply power to the switchable lamp group mechanism (3) is provided between the solar power supply system (4) and the adjustable angle lighting fixtures (2). An angle control component (6) for synchronously controlling the multiple adjustable angle lighting fixtures (2) to adjust the lighting angle around its perimeter is provided on the carrier (1). An axial telescopic adjustment rod (7) is provided at the hinge shaft of the adjustable angle lighting fixtures (2). A holding control link (8) that can always control the switching of the switchable lamp group mechanism (3) at different tilt angles is provided between the axial telescopic adjustment rod (7) and the switchable lamp group mechanism (3). A synchronous telescopic link assembly (9) for controlling the multiple axial telescopic adjustment rods (7) to telescopically extend and retract clockwise or counterclockwise is provided on the carrier (1).

2. The modular conversion component for low-power outdoor lighting according to claim 1, characterized in that: The solar power supply system (4) includes a battery pack (401) disposed in the carrier (1), and a solar panel (402) disposed on the carrier (1), the solar panel (402) being electrically connected to the battery pack (401).

3. The modular conversion component for low-power outdoor lighting according to claim 2, characterized in that: The adjustable angle lighting fixture (2) consists of four parts, which are respectively set in four directions on the carrier (1); The adjustable angle lighting fixture (2) includes a hinged bushing (201) disposed on the carrier (1), a rotating shaft (202) is rotatably mounted on the hinged bushing (201), and a flip-up lamp housing (203) is disposed on the rotating shaft (202).

4. The modular conversion component for low-power outdoor lighting according to claim 3, characterized in that: The switchable lamp assembly mechanism (3) includes a vertical slide groove (301) disposed in the flip lamp housing (203), a vertical slider (302) is movably disposed in the vertical slide groove (301), a movable lamp plate (303) is disposed on the vertical slider (302), a plurality of semiconductor light sources (304) with different lighting modes are arranged on the movable lamp plate (303) along the height direction, a front baffle (305) for blocking the plurality of semiconductor light sources (304) is disposed on the flip lamp housing (203), and a light-transmitting slot (306) is disposed on the front baffle (305) that can expose one of the semiconductor light sources (304). The three semiconductor light sources (304) are a smog-specific semiconductor light source (100), an anti-glare current-guiding semiconductor light source (200), and an energy-saving sensing semiconductor light source (300).

5. A modular conversion component for low-power outdoor lighting according to claim 4, characterized in that: The conductive system (5) includes a first conductive ring (501) disposed on the inner wall of the hinge sleeve (201), and a second conductive ring (502) disposed on the outer wall of the rotating shaft (202). The first conductive ring (501) and the second conductive ring (502) are electrically connected. The first conductive ring (501) is electrically connected to the solar power supply system (4). Each semiconductor light source (304) is provided with a conductive sheet group (503). The flip lamp housing (203) is aligned with the position of the light-transmitting slot (306) and is provided with an elastic conductive sheet (504). The elastic conductive sheet (504) is electrically connected to the conductive sheet group (503) on a corresponding semiconductor light source (304) at the same height. The second conductive ring (502) is electrically connected to the elastic conductive sheet (504).

6. A modular conversion component for low-power outdoor lighting according to claim 4, characterized in that: The angle control component (6) includes a lifting connecting frame (601) disposed on the carrier (1), a lifting cylinder assembly (602) disposed on the carrier (1), the output end of the lifting cylinder assembly (602) being connected to the lifting connecting frame (601), four first hinge seats (603) evenly distributed around the lifting connecting frame (601), a second hinge seat (604) disposed on the back of the flip lamp housing (203), and a control link (605) hinged between the first hinge seat (603) and a corresponding second hinge seat (604).

7. A modular conversion component for low-power outdoor lighting according to claim 6, characterized in that: The axial telescopic adjustment rod (7) includes an axial guide hole (701) located at the center of the rotating shaft (202), and an axial adjustment shaft (702) is movably disposed in the axial guide hole (701).

8. A modular conversion component for low-power outdoor lighting according to claim 7, characterized in that: The holding control link (8) includes a synchronous annular groove (801) disposed at one end of the axial adjustment shaft (702), a synchronous adjustment ring (802) is rotatably installed in the synchronous annular groove (801), a first hinge part (803) is provided on the side wall of the vertical slider (302), a second hinge part (804) is provided on the synchronous adjustment ring (802), and a push-pull link (805) is hinged between the first hinge part (803) and a corresponding second hinge part (804).

9. A modular conversion component for low-power outdoor lighting according to claim 8, characterized in that: The synchronous telescopic linkage assembly (9) includes a rotating ring assembly (901) disposed at the bottom of the carrier (1). An internal gear (902) is disposed on the inner wall of the rotating ring assembly (901). A forward and reverse motor (903) is disposed at the bottom of the carrier (1). A drive gear (904) that can mesh with the internal gear (902) is disposed at the output end of the forward and reverse motor (903). Four eccentric hinge ends (907) are evenly distributed around the central circumference of the rotating ring assembly (901) on the end face of the rotating ring assembly (901). A control hinge end (905) is disposed on the axial adjustment shaft (702). A synchronous linkage (906) is hinged between the eccentric hinge end (907) and a corresponding control hinge end (905).

10. An intelligent control system, comprising the modular transformation component as described in claims 1-9, characterized in that, It also includes a control module (400), a multi-dimensional environmental sensing module (500), and an energy-saving control module (600); the control module (400) is connected to the multi-dimensional environmental sensing module (500), the energy-saving control module (600), the lifting cylinder assembly (602) of the modular conversion component, the forward and reverse motor (903), and the solar power supply system (4) respectively. The multi-dimensional environmental sensing module (500) includes a haze concentration sensor (510), a rainfall sensor (520), an ambient light intensity sensor (530), and a human infrared sensor (540) set on the top of the carrier (1). Each sensor is used to collect haze index, rainfall status, natural light intensity, and human activity level data of the outdoor environment in real time and feed them back to the control module. The energy-saving control module (600) is electrically connected to the battery pack (401) of the solar power supply system (4) and is used to monitor the remaining power of the battery pack (401) and feed it back to the control module.

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