360-degree illumination portable energy storage lighthouse and control method

Abstract

The invention relates to the technical field of lighting equipment, in particular to a 360-degree lighting portable energy storage lighthouse and a control method, and the 360-degree lighting portable energy storage lighthouse comprises a moving assembly which comprises two first wheels and two second wheels; the energy storage box assembly comprises a box body, a lithium battery and a circuit module, the lithium battery and the circuit module are arranged in the box body, the outer surface of the box body is provided with a display screen, an illumination adjusting module, a power switch, an AC charging socket and an illumination sensor, a discharging socket is arranged in the box body, and the illumination adjusting module is integrated with a control panel, an adjusting device and a wireless transceiver. The lighting assembly is arranged at the top of the box body and comprises a telescopic lamp pole and a lamp arranged around the outer portion of the lamp pole by 360 degrees, the lamp pole is connected with the top of the lamp, and a lampshade is further arranged at the top of the lamp; the control assembly comprises a locking mechanism, brake handles and a fixing mechanism, the locking mechanism is arranged on the top of the front side of the box body and movably connected with the lamp pole, and the brake handles are arranged on the left side and the right side of the box body; the operation efficiency of the lighthouse is improved, and intelligent control over illumination is achieved.

Description

Technical Field

[0001] This invention relates to the field of lighting equipment technology, specifically to a 360-degree portable energy storage lighthouse and its control method. Background Technology

[0002] With the increasing demand for outdoor lighting, lighthouses have become core equipment for area lighting due to their high light intensity and wide coverage. Traditional lighthouses mainly rely on mains power connections or diesel generators for power supply, which has many limitations: mains power connections depend on the surrounding mains power coverage, limiting application scenarios; in diesel generator mode, the generator set cannot be moved, is prone to resonance, emits exhaust gas and generates high-decibel noise during operation, causing harm to the environment and workers, and is not waterproof, making it unsuitable for use in environments with standing water or water spray.

[0003] To address these issues, mobile energy storage light towers have emerged, offering mobility, wide-area illumination, and environmental adaptability. However, existing mobile energy storage light towers still have significant drawbacks: First, while the power supply mode has moved away from diesel reliance, some products still suffer from unreasonable structural designs, such as the light pole being installed at the lower end of the light fixture, resulting in a long overall length and large space occupation when retracted for storage. Second, the connecting cables lack a dedicated storage structure, scattering on the ground when not fully extended, easily causing tripping or equipment damage risks. Third, the control methods are limited, mostly using wired or single-unit remote control, requiring individual adjustments when multiple units are linked, making operation cumbersome. Fourth, they lack stability and are inconvenient to operate when placed on uneven terrain.

[0004] Therefore, there is an urgent need to design a compact, easy-to-store, intelligently controlled, uniformly illuminated, and highly stable energy storage mobile light tower to improve the safety, convenience, and applicability of outdoor lighting. Summary of the Invention

[0005] In order to overcome the above-mentioned technical problems in the prior art, the present invention provides a 360-degree portable energy storage lighthouse and control method, thereby reducing the space ratio, improving the operating efficiency of the lighthouse, being able to be used and placed stably on rugged ground, and realizing intelligent control of lighting.

[0006] To achieve the above objectives, embodiments of the present invention provide a 360-degree portable energy storage light tower, comprising a mobile component, an energy storage box component, a lighting component, and a control component; the mobile component includes two first wheels and two second wheels, the two first wheels being connected to the bottom of the energy storage box component via axles, and the two second wheels being connected to the bottom of the energy storage box component via bolts; the energy storage box component includes a box body and a lithium battery and a circuit module disposed within the box body, the outer surface of the box body being provided with a display screen, a lighting adjustment module, a power switch, an AC charging socket, and a light sensor, and the inner surface of the box body... The system includes a discharge socket. The lighting adjustment module integrates a control board, adjustment devices, and a wireless transceiver. The lighting assembly is located on the top of the enclosure and includes a telescopic lamp post and a hollow lamp fixture. The lamp fixture is arranged around the outside of the lamp post in a 360-degree configuration. The lamp post is connected to the top of the lamp fixture, and the top of the lamp fixture is also equipped with a lampshade. The control assembly includes a locking mechanism, a brake handle, and a fixing mechanism. The locking mechanism is located on the top of the front side of the enclosure and is movably connected to the lamp post. The brake handle is located on the left and right sides of the enclosure, and the fixing mechanism is located on the front and rear sides of the enclosure.

[0007] Preferably, the diameters of the two first wheels are larger than the diameters of the two second wheels. The two first wheels are symmetrically located on the rear side of the bottom of the housing and both adopt a spoked rim structure. The two second wheels are symmetrically located on the front side of the bottom of the housing and both adopt a caster wheel structure. The lamp is located on the front side of the top of the housing. A storage compartment is provided inside the housing, located below the lamp, and used to store lamp wires and electrical wires. A door is also provided on the side of the storage compartment near the front of the housing. A receiving compartment is also provided inside the housing, located behind the storage compartment. The lithium battery and the circuit module are both located in the receiving compartment, with the circuit module located above the lithium battery. The discharge socket is located inside the storage compartment.

[0008] Preferably, the assembly further includes a handrail assembly, which includes a handrail and a connecting rod. The handrail is located on the rear side of the housing, and the connecting rod is fixedly located on the top of the housing. The handrail includes a frame body and two grips. The frame body is fixedly connected to the connecting rod and the rear surface of the housing, and the two grips are fixedly located on both sides of the frame body. Anti-collision protrusions are provided at both the upper and lower ends of the front surface of the housing. The fixing mechanism is located at the left and right ends of the front and rear surfaces of the housing. The fixing mechanism includes a U-shaped frame, a support rod, and a limiting structure. The open end of the U-shaped frame is rotatably connected to the support rod.

[0009] Preferably, the locking mechanism is a latch, which includes a latch body and a buckle. The latch body is fixedly installed on the top of the outer surface of the front side of the housing. A base plate is fitted on the bottom of the lamp post. An L-plate is provided on the base plate corresponding to the position of the buckle. The buckle is connected to the L-plate.

[0010] Preferably, the circuit module adopts a first electrical module or a second electrical module. The first electrical module includes a battery management system, a charging module, a coordination controller, a lamp driver, and a wireless control module. The discharge socket is a DC discharge socket. The lithium battery is electrically connected to the battery management system, the DC discharge socket is electrically connected to the battery management system, the lamp driver is electrically connected to the DC discharge socket, and the lamp is electrically connected to the lamp driver. The AC charging socket is electrically connected to the charging module, and the charging module is electrically connected to the battery management system. The battery management system supplies power to the coordination controller, and the coordination controller exchanges data with the battery management system and the charging module via wired communication. The light sensor, the adjustment device, and the display screen are all communicatively connected to the coordination controller, and the light sensor and the adjustment device both send data to the coordination controller. The coordination controller sends operating status data to the display screen. The wireless control module is wirelessly connected to the coordination controller, and the wireless control module is also wirelessly connected to a remote APP controller. The lamp driver is wirelessly connected to the wireless control module.

[0011] Preferably, the second electrical module includes a battery management system, a bidirectional inverter, a lamp driver, the coordination controller, and the wireless control module. The discharge socket is an AC discharge socket. The lithium battery is electrically connected to the battery management system, the bidirectional inverter is electrically connected to the battery management system, the AC charging socket and the AC discharging socket are both electrically connected to the bidirectional inverter, the lamp driver is electrically connected to the AC discharging socket, and the lamp is electrically connected to the lamp driver. The battery management system supplies power to the coordination controller, and the coordination controller exchanges data with the battery management system and the bidirectional inverter via wired communication. The light sensor, the regulating device, and the display screen are all communicatively connected to the coordination controller, and the light sensor and the regulating device both send data to the coordination controller, while the coordination controller sends operating status data to the display screen. The wireless control module is wirelessly connected to the coordination controller, and the wireless control module is also wirelessly connected to a remote APP controller. The lamp driver is wirelessly connected to the wireless control module.

[0012] Accordingly, the present invention also provides a control method for a portable energy storage lighthouse, applied to the 360-degree lighting portable energy storage lighthouse provided by the present invention, comprising the following steps: S1: real-time monitoring of ambient light intensity via a light sensor; S2: automatic activation of the light fixture when the ambient light intensity is lower than a preset threshold; S3: receiving external control signals via a wireless communication module, and adjusting the brightness, flashing mode, or on / off state of the light fixture based on the control signals; S4: sending matrix control signals to multiple portable energy storage lighthouses via a remote control application to coordinate the lighting operation of multiple lighthouses.

[0013] Preferably, the remote control application runs on a mobile device or computer and communicates with the lighthouse via a wireless network; the adjustment of the brightness, flashing mode, or on / off state of the lights is achieved through a wireless controller integrated into a human-machine interface control panel; the matrix control signal includes synchronous control of the opening, closing, brightness adjustment, or flashing mode of multiple lighthouses to achieve uniform coverage of the lighting area; the matrix control signal supports group control of multiple lighthouses to achieve independent lighting strategies for different areas.

[0014] Preferably, the step of automatically starting the lights further includes: automatically turning off the lights when the ambient light intensity recovers to a level higher than a preset threshold.

[0015] Preferably, the control method further includes monitoring the battery status through a battery management system and adjusting the power output of the lamp according to the battery status.

[0016] The present invention has at least the following technical effects through the technical solution provided by the present invention: The lamp post of this invention connects to the top through a hollow lamp fixture, and when retracted, most of it is located inside the lamp fixture, significantly shortening the overall length and facilitating transportation and storage. This makes the portable energy storage lighthouse of this invention compact and space-saving. A dedicated storage compartment for connecting cables prevents them from scattering on the ground and causing tripping or damage, and the waterproof connectors allow for cable exit, making it suitable for humid outdoor environments. The 360-degree integrated columnar lamp fixture provides uniform illumination with no overlapping areas, ensuring accurate spatial judgment for operators. The top lampshade blocks light leakage from above, reducing light pollution. It supports wireless single-unit control and multi-unit matrix operation. Control is achieved through multiple units operating in tandem, eliminating the need for individual adjustments. Synchronous or group control via a remote application significantly improves operational efficiency. The light-sensing automatic start / stop function reduces manual intervention, enabling energy-saving lighting and thus achieving intelligent control and high operational efficiency. Support rods on the front and rear sides of the enclosure ensure stability on uneven terrain, preventing tipping and movement. The handbrake system is more effortless and reliable than traditional foot brakes. It features two electrical module options, capable of outputting AC and DC power respectively, adapting to the power supply needs of different types of lighting fixtures and external equipment. The entire unit is waterproof and dustproof, suitable for various complex outdoor environments. Attached Figure Description

[0017] The accompanying drawings are provided to further illustrate embodiments of the present invention and form part of the specification. They are used together with the following detailed description to explain the embodiments of the present invention, but do not constitute a limitation thereof. In the drawings: Figure 1 This is an overall structural diagram of the 360-degree portable energy storage lighthouse provided in an embodiment of the present invention; Figure 2 This is a left view of the portable energy storage lighthouse provided in an embodiment of the present invention; Figure 3 This is the present invention. Figure 1 Enlarged view of point A in the middle; Figure 4 This is a cross-sectional schematic diagram of the lighting component in this invention; Figure 5 This is a structural diagram of the first electrical module in the portable energy storage lighthouse provided in an embodiment of the present invention; Figure 6 This is a structural diagram of the second electrical module in the portable energy storage lighthouse provided in an embodiment of the present invention; Figure 7 This is a flowchart of the control method for the portable energy storage lighthouse provided in the embodiments of the present invention; Figure 8 This is a system architecture diagram of matrix control in an embodiment of the present invention.

[0018] Icons: 1. First wheel; 2. Second wheel; 3. Box body; 4. Power switch; 5. Display screen; 6. Adjustment device; 7. Lamp post; 8. Lamp fixture; 9. Lamp cover; 10. Brake handle; 11. Storage compartment; 12. Reservoir compartment; 13. Door; 14. Main frame; 15. Grip part; 16. Anti-collision protrusion; 17. U-shaped frame; 18. Support rod; 19. Base plate; 20. Buckle body; 21. Buckle ring; 22. Heat dissipation sleeve; 23. Telescopic rod; 24. Cooling fan; 25. Lamp driver reservoir compartment; 26. Detailed Implementation

[0019] The specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings. It should be understood that the specific embodiments described herein are for illustration and explanation only and are not intended to limit the scope of the present invention.

[0020] In this invention, the terms "system" and "network" are used interchangeably. "Multiple" refers to two or more; therefore, in this invention, "multiple" can also be understood as "at least two." "And / or" describes the relationship between related objects, indicating that three relationships can exist. For example, A and / or B can represent: A alone, A and B simultaneously, or B alone. Additionally, the character " / ", unless otherwise specified, generally indicates that the preceding and following related objects have an "or" relationship. Furthermore, it should be understood that in the description of this invention, terms such as "first" and "second" are used only for descriptive purposes and should not be construed as indicating or implying relative importance or order.

[0021] Please see Figure 1 , Figure 2 , Figure 3 and Figure 4 This invention provides a 360-degree portable energy storage lighthouse. Specifically, the portable energy storage lighthouse includes a moving component, an energy storage box component, a lighting component, and a control component. These components work together to achieve moving, energy storage, lighting, and intelligent control functions. The moving component includes two first wheels 1 and two second wheels 2. Both first wheels 1 are rigidly connected to the bottom of the energy storage box component via axles, and both second wheels 2 are fixedly connected to the bottom of the energy storage box component via bolts, forming a four-point support structure to ensure stability during movement. In one embodiment, the diameter of the two first wheels 1 is larger than the diameter of the two second wheels 2. The two first wheels 1 are symmetrically arranged on the rear bottom of the energy storage box 3 and adopt a spoked rim structure, providing high strength load-bearing capacity and adaptability to rough terrain. The two second wheels 2 are symmetrically arranged on the front bottom of the energy storage box 3 and both adopt a universal wheel structure to improve steering flexibility and facilitate manual pushing or position adjustment.

[0022] Furthermore, the energy storage box assembly includes a box body 3 and a lithium battery and circuit module housed within the box body 3. The box body 3 is made entirely of metal, possessing waterproof and dustproof properties, suitable for complex outdoor environments. A display screen 5, a lighting adjustment module, a power switch 4, an AC charging socket, and a light sensor are located on the outer surface of the box body 3. A discharge socket is also located inside the box body. The lighting adjustment module integrates a control board, an adjustment device 6, and a wireless transceiver. The display screen 5 can display information such as battery status (charge, voltage) and lighting parameters (brightness, color temperature). The wireless transceiver is used to receive external control signals. The adjustment device can be a rotary adjuster, a button adjuster, or a touch screen adjuster. In one embodiment, the interior of the box body 3 is divided into a storage compartment 11 and a receiving compartment 12. The lighting assembly is located on the front top of the box body 3, while the storage compartment 11 is located on the front interior side of the box body 3 (i.e., the storage compartment 11 is located below the lighting assembly). This storage compartment 11 is used to store connecting cables such as lamp wires and charging cables. A door 13 is located on the side near the front of the housing 3, and a door lock 14 is also provided on the door 13. A waterproof connector leads out the wiring. When the light is at different heights, excess wiring can be stored in the storage box to prevent personnel from touching it and to prevent damage to the wiring from adverse environments. A discharge socket is located inside the storage compartment; the discharge socket can be a DC discharge socket or an AC discharge socket. A receiving compartment 12 is located behind the storage compartment 11, and both the lithium battery and circuit module are located inside the receiving compartment 12, with the circuit module located above the lithium battery, resulting in a compact and reasonable layout. Furthermore, anti-collision protrusions 17 are provided at both the upper and lower ends of the front surface of the housing 3 to protect the housing 3 and its internal components from collision damage. The material of the anti-collision protrusions 17 can be selected as a material with anti-collision function. For example, two anti-collision protrusions 17 are fixedly provided at the upper end of the front surface of the housing 3, and one anti-collision protrusion 17 is fixedly provided at the lower end. The control component includes a fixing mechanism located at the left and right ends of the front and rear surfaces of the housing 3. This fixing mechanism includes U... The U-shaped frame 18, support rod 19, and limiting structure are used to fix the U-shaped frame 18 to the box body 3 with screws. Each U-shaped frame 18 is rotatably connected to the support rod 19. The support rod 19 can stay at any angle and is fixed by the limiting structure to ensure the stability of the lighthouse on rough ground and also has an anti-tipping function.

[0023] In this embodiment of the invention, the 360-degree portable energy storage lighthouse also includes a handrail assembly. The handrail assembly includes a handrail and a connecting rod. The handrail is located on the rear side of the housing 3, and the connecting rod is fixedly located on the top of the housing. The connecting rod can be a C-frame or two parallel rods. When a C-frame is used, the connecting rod is fixedly located on the top of the housing and above the storage compartment. When two parallel rods are used, the connecting rods are located on the left and right sides of the top of the housing. Specifically, the handrail includes a frame body 15 and two grips 16 (the grips 16 can be made of non-slip material). The rear surface of the housing 3 and the connecting rod are fixedly connected to the frame body 15. The two grips 16 are fixed on both sides of the frame body 15 and adopt an ergonomic hollow design to facilitate the operator's grip and push, improving operating comfort. When moving, the operator holds the grips 16 of the handrail assembly to push the lighthouse. The front universal wheels enable flexible steering, and the rear spoked wheels are suitable for rough roads in the construction area, making it easy to move. The lighthouse is moved to the target location. The control components also include a locking mechanism and a brake handle 10. The brake handle 10 is located on the left and right sides of the housing 3 and is linked to the wheel locking mechanism. It uses a handbrake method, which is convenient to operate and requires less effort than a traditional foot brake. It can quickly lock the wheels to prevent the lighthouse from moving. When fixing, the brake handles 10 on both sides are pulled to lock the wheels and prevent movement. If the ground in the working area is uneven, the support rods 19 on the front and rear sides of the housing 3 are adjusted to a suitable angle and fixed by the limiting structure to ensure that the lighthouse is placed stably and to prevent it from tipping over. The lighting components are fixed by the locking mechanism. Specifically, the locking mechanism is located on the top of the front side of the housing and is movably connected to the light pole 7. It is used to fix the light pole 7 after it is extended or retracted to prevent the light pole 7 from shaking during use. In one real-time solution, the locking mechanism is selected as a buckle. The buckle includes a buckle body 21 and a buckle ring 22. The buckle body 21 is fixed to the top of the outer surface of the front side of the housing 3, and a base plate 20 is fitted at the bottom of the light pole 7. An L-shaped hook is provided on the base plate 20 at the position corresponding to the buckle ring 22. The L-shaped plate is connected to the buckle 22 to fix the light pole 7 after it is extended or retracted. When storing, the buckle is loosened, the light pole 7 is retracted so that most of it is inserted into the light fixture 8, the light wires and charging wires are organized and put into the storage compartment 11, and the compartment door 13 is closed to reduce the overall volume of the lighthouse and facilitate transportation or storage.

[0024] In embodiments of the present invention, such as Figure 4As shown, the lighting assembly is located on the front side of the top of the housing 3. This lighting assembly includes a telescopic lamp post 7 and a luminaire 8 arranged 360 degrees around the outside of the lamp post 7. The lamp post 7 is fixedly connected to the top of the luminaire 8. The luminaire 8 has a hollow design, with the telescopic lamp post 7 passing through the central cavity of the luminaire 8. After retraction, most of the lamp post 7 is located inside the luminaire 8, greatly reducing the overall space size. In one embodiment, the telescopic lamp post 7 can adopt a cylindrical telescopic rod 24 structure, and the luminaire 8 also adopts a cylindrical structure, with LED beads extending 360 degrees. The light fixture is integrated into a single ring to achieve uniform illumination, avoiding the light overlap problem of traditional spotlight combinations. A heat dissipation sleeve 23 is also installed between the light fixture 8 and the telescopic pole 24. A cooling fan housing is opened at the top of the telescopic pole 24, and a cooling fan 25 is installed inside the cooling fan housing. A light fixture driver housing 26 is also opened at the bottom of the telescopic pole 24, and a light fixture driver is installed inside the light fixture driver housing 26. The light fixture driver converts the input power into DC power to drive the light fixture. The light fixture driver integrates a wireless communication module for communication with the wireless control module. A lampshade 9 is also installed on the top of the light fixture 8. The lampshade 9 can block the light from leaking out from above. The shape of the lampshade can be hemispherical to prevent light diffusion, so as to reduce light pollution to the external environment and personnel in the work area.

[0025] In this embodiment of the invention, the circuit module may be a first electrical module or a second electrical module. These two modules correspond to different power supply logics and are adapted to different application scenarios; specifically, for example... Figure 5As shown, the first electrical module includes a battery management system, a charging module, a coordination controller, a lamp driver, and a wireless control module. The discharge socket is a DC discharge socket located in the storage compartment of the enclosure. The lithium battery and battery management system are electrically connected, as are the DC discharge socket and the battery management system. The lamp driver is electrically connected to the DC discharge socket, and the lamps are electrically connected to each other. The AC charging socket is electrically connected to the charging module, which in turn is electrically connected to the battery management system. The battery management system supplies power to the coordination controller. The coordination controller exchanges data with the battery management system and the charging module via wired communication. A light sensor, an adjustment device (which can be a button, knob, or touchscreen, used to control the lighting and set relevant operating parameters during adjustment), and a display screen (used to display the overall operating status and for human-machine interaction) are all communicatively connected to the coordination controller. Furthermore, the light sensor and adjustment device are both... Data is sent to the coordinating controller, which then sends operating status data to the display screen. The wireless control module is wirelessly connected to the coordinating controller, which can coordinate the operation of the entire system, communicate with each module, read and write relevant operating parameters, and issue operating commands. The wireless control module is also wirelessly connected to a remote APP controller, and the lighting driver is also wirelessly connected to the wireless control module. The core feature of this electrical module is "direct DC power supply," eliminating the need for inverter conversion and directly outputting DC power, resulting in higher power supply efficiency and compatibility with lighting fixtures and equipment that support DC power. The charging logic of this electrical module is: AC mains power → DC power → lithium battery storage. When connected to AC mains power, the external AC220V plug is inserted into the AC charging socket on the enclosure. The AC mains power is transmitted to the charging module via the AC charging socket. The charging module unidirectionally converts the input AC220V AC power to DC24V DC power compatible with the lithium battery, while simultaneously stabilizing the voltage (voltage fluctuation ≤ ±0).The charging module outputs DC power (5V) and filters it to ensure stable power. The DC power from the charging module is transmitted to the battery management system (BMS), which monitors the lithium battery's state of charge (SOC), charging current, and voltage in real time. When the battery charge is below the full charge threshold (95%), the BMS controls the charging circuit to conduct, charging the lithium battery using constant current, constant voltage, and float charging methods. The display shows the charging status simultaneously (e.g., "DC charging in progress, charge 30% → 60%"). When the battery charge reaches the full charge threshold, the BMS automatically disconnects the connection between the charging module and the battery, stopping charging to prevent overcharging and battery damage. If overcurrent (e.g., exceeding 15A), overvoltage (e.g., exceeding 28V), or short circuit is detected during charging, the BMS immediately disconnects the charging circuit, displays a fault code on the display, and triggers a buzzer until the fault is resolved. The discharge logic of this electrical module is: lithium battery → DC power → light source. When lighting is needed, the BMS controls the discharge circuit to conduct, and the lithium battery releases DC power. The 24V DC power, after being regulated and current-limited again by the battery management system, is transmitted to the DC discharge socket. The lamp driver input connects to the 24V DC output from the DC discharge socket. Based on the lamp's rated input parameters, the internal constant current and step-down circuit converts the DC 24V into power suitable for the lamp. The lamp driver then transmits the adapted DC power to the 360-degree cylindrical LED lamp, activating the lamp and providing uniform 360-degree illumination. If it receives commands such as brightness adjustment or flashing mode via a wireless controller, the lamp driver synchronously adjusts the output current or on / off frequency to achieve the corresponding function (e.g., 1.25A output current at 50% brightness, and intermittent 1Hz current output in flashing mode).

[0026] Furthermore, such as Figure 6As shown, the second electrical module includes a battery management system, a bidirectional inverter, a lamp driver, a coordination controller, and a wireless control module. The discharge socket of this electrical module is an AC discharge socket. The lithium battery and battery management system are electrically connected. The bidirectional inverter is electrically connected to the battery management system. Both the AC charging socket and the AC discharge socket are electrically connected to the bidirectional inverter. The lamp driver is electrically connected to the AC discharge socket, and the lamps are electrically connected to each other. The battery management system supplies power to the coordination controller. The coordination controller exchanges data with the battery management system and the bidirectional inverter via wired communication. The light sensor, the adjustment device (which can be one of buttons, knobs, or a touchscreen; the adjustment device is used to control the lighting and set relevant operating parameters), and the display screen are all communicatively connected to the coordination controller. The light sensor and the adjustment device both send data to the coordination controller, and the coordination controller sends operating status data to the display screen. The display screen shows the overall operating status and facilitates human-machine interaction. The coordinating controller coordinates the operation of the entire system, communicates with various modules, reads and writes relevant operating parameters, and issues operating commands. The wireless control module is wirelessly connected to the coordinating controller and also wirelessly connected to a remote APP controller. The lamp driver is wirelessly connected to the wireless control module. The bidirectional inverter of this electrical module can realize inverter discharge (DC to AC) and AC charging functions, adapting to scenarios requiring AC power. When charging using this electrical module, the AC plug is inserted into the AC charging socket. The bidirectional inverter converts AC to DC, which is then regulated and current-limited by the battery management system to charge the lithium battery. The display screen shows the charging progress. When discharging using this electrical module, the DC power from the lithium battery is inverted to AC by the bidirectional inverter and delivered to the lamp driver through the AC discharge socket. The driver adapts the power to supply the lamp with light.

[0027] Please see Figure 7 Based on the same inventive concept, this invention provides a control method for a portable energy storage lighthouse. This control method is applied to the 360-degree illumination portable energy storage lighthouse provided in this invention, and includes the following steps: S1: Real-time monitoring of ambient light intensity via a light sensor; S2: When the ambient light intensity is lower than a preset threshold, the lights will be automatically turned on; S3: Receive external control signals through the wireless communication module, and adjust the brightness, flashing mode, or on / off state of the lamps based on the control signals; S4: Send matrix control signals to multiple portable energy storage lighthouses via a remote control application to coordinate the lighting operations of multiple lighthouses.

[0028] In this embodiment of the invention, steps S1 and S2 are specifically light-sensing automatic control steps. A light sensor monitors the ambient light intensity in real time, and transmits the collected signals to the wireless controller on the control board (the wireless controller is integrated into the human-machine interface control board). When the ambient light intensity is lower than a preset threshold (preferably 30-50 lux, in the evening or in a tunnel), the wireless controller automatically sends a power supply command to the lamp driver to turn on the lamp. The automatic lamp-starting step also includes automatically turning off the lamp when the ambient light intensity recovers to above the preset threshold. For example, when the ambient light intensity is higher than the preset threshold (preferably 100-200 lux, such as in the early morning or during the day), an automatic power-off command is sent to turn off the lamp, achieving energy-saving lighting. Step S3 is specifically a wireless single-control step, using a remote control application on an external mobile device (phone, tablet) or computer (the remote control application runs on the mobile device or computer and communicates with...). The system communicates with the lighthouse via a wireless network. Adjusting the brightness, flashing mode, or on / off status of the lights is achieved through a wireless controller. The controller (integrated into the human-machine interface control board) receives the control signal, converts it into execution instructions, and transmits them to the lighthouse driver. Based on these instructions, the brightness, flashing mode, or on / off status of the lights is adjusted to meet different lighting needs. Step S4 specifically involves multi-lighthouse matrix control. A remote control application sends matrix control signals to multiple portable energy storage lighthouses. These matrix control signals include synchronous control of the opening, closing, brightness adjustment, or flashing mode of multiple lighthouses to achieve uniform coverage of the lighting area. This signal enables synchronous opening, closing, brightness adjustment, or flashing mode switching of multiple lighthouses, ensuring uniform coverage of the lighting area. Simultaneously, the matrix control signal supports group control of multiple lighthouses, allowing for the setting of independent lighting strategies according to different area requirements, improving adaptability to multiple scenarios. Figure 8 The system architecture of matrix control is shown: the control terminal (such as a smartphone) communicates with one or more portable energy storage lighthouses via a wireless network (such as 4G / 5G or Wi-Fi). The APP on the control terminal can send instructions to a single lighthouse or send matrix control signals to "Group 1" consisting of multiple lighthouses to achieve unified management of the group.

[0029] In this embodiment of the invention, the control method further includes a battery status monitoring step, which involves monitoring the battery status through a battery management system and adjusting the power output of the lamp according to the battery status. Specifically, the battery management system monitors the status of the lithium battery (charge, voltage, charging and discharging current) in real time and displays the status information on a display screen. When the battery charge is lower than a preset low charge threshold, the lamp power output is automatically reduced to extend the lighting time. When overcharging, overcurrent, or other abnormal conditions are detected, the relevant circuits are immediately cut off, and a fault prompt is displayed on the display screen to ensure safe use.

[0030] The 360-degree portable energy storage lighthouse and control method provided by this invention have the following advantages: Compact structure and small space occupation: The light pole passes through the hollow light fixture and connects to the top; after retraction, most of it is located inside the light fixture, significantly shortening the overall length and facilitating transportation and storage; Convenient storage and high safety: The storage compartment is specifically designed to store the connecting cable, avoiding the risk of tripping or damage caused by the cable falling to the ground, and the cable exits through a waterproof connector, making it suitable for humid outdoor environments; Uniform lighting and low light pollution: 360... The integrated columnar luminaire achieves uniform illumination with no overlapping areas, ensuring accurate spatial judgment for operators; the top lampshade blocks light leakage from above, reducing light pollution; intelligent control and efficient operation: it supports wireless single control and multi-unit matrix control, eliminating the need for individual adjustments when multiple units are linked, and can be controlled synchronously or in groups via a remote application, significantly improving operational efficiency; the light-sensing automatic start / stop function reduces manual intervention and achieves energy-saving lighting; strong stability and convenient operation: multi-angle support rods on the front and rear sides of the cabinet ensure placement stability on uneven ground, preventing tipping and movement; the handbrake-type braking system is less effort and more reliable in locking compared to traditional foot brakes; wide adaptability and flexible power supply: it has two electrical module solutions, which can output AC and DC power respectively, adapting to the power supply needs of different types of luminaires and external equipment, and the whole unit is waterproof and dustproof, suitable for various complex outdoor environments.

[0031] The optional embodiments of the present invention have been described in detail above with reference to the accompanying drawings. However, the embodiments of the present invention are not limited to the specific details in the above embodiments. Within the scope of the technical concept of the embodiments of the present invention, various simple modifications can be made to the technical solutions of the embodiments of the present invention, and these simple modifications all fall within the protection scope of the embodiments of the present invention.

[0032] It should also be noted that the various specific technical features described in the above embodiments can be combined in any suitable manner without contradiction. To avoid unnecessary repetition, the embodiments of the present invention will not describe the various possible combinations separately.

[0033] Those skilled in the art will understand that all or part of the steps in the methods of the above embodiments can be implemented by a program instructing related hardware. This program is stored in a storage medium and includes several instructions to cause a microcontroller, chip, or processor to execute all or part of the steps of the methods described in the various embodiments of this application. The aforementioned storage medium includes various media capable of storing program code, such as a USB flash drive, a portable hard drive, a read-only memory (ROM), a random access memory (RAM), a magnetic disk, or an optical disk.

[0034] Furthermore, various different implementations of the present invention can be combined arbitrarily, as long as they do not violate the spirit of the present invention, they should also be regarded as the content disclosed in the present invention.

Claims

1. A portable energy storage lighthouse with 360-degree illumination, characterized in that, This includes mobile components, energy storage box components, lighting components, and control components; The moving component includes two first wheels (1) and two second wheels (2). The two first wheels (1) are connected to the bottom of the energy storage box assembly via axles, and the two second wheels (2) are connected to the bottom of the energy storage box assembly via bolts. The energy storage box assembly includes a box body (3) and a lithium battery and circuit module disposed inside the box body (3). The outer surface of the box body (3) is provided with a display screen, a lighting adjustment module, a power switch (4), an AC charging socket and a light sensor. The box body is provided with a discharge socket. The lighting adjustment module integrates a control board, an adjustment device (6) and a wireless transceiver. The lighting assembly is located on the top of the housing (3). The lighting assembly includes a telescopic lamp post (7) and a hollow lamp (8). The lamp (8) is arranged around the outside of the lamp post (7) in a 360-degree arrangement. The lamp post (7) is connected to the top of the lamp (8). The top of the lamp (8) is also provided with a lampshade (9). The control components include a locking mechanism, a brake handle (10), and a fixing mechanism. The locking mechanism is located on the top of the front side of the housing (3) and is movably connected to the lamp post (7). The brake handle (10) is located on the left and right sides of the housing (3), and the fixing mechanism is located on the front and rear sides of the housing.

2. The 360-degree portable energy storage lighthouse according to claim 1, characterized in that, The diameter of the two first wheels (1) is larger than the diameter of the two second wheels (2). The two first wheels (1) are symmetrically located on the rear side of the bottom of the box (3) and both adopt a spoke rim structure. The two second wheels (2) are symmetrically located on the front side of the bottom of the box (3) and both adopt a universal wheel structure. The lamp (8) is located on the front side of the top of the box (3). A storage compartment (11) is provided inside the box (3). The storage compartment (11) is located below the lamp (8) and is used to store lamp wires and electrical wires. A door (13) is also provided on the side of the storage compartment (11) near the front of the box (3). The discharge socket is located inside the storage compartment. The housing (3) also has a storage compartment (12) located behind the storage compartment (11). The lithium battery and the circuit module are both located in the storage compartment (12), and the circuit module is located above the lithium battery.

3. The 360-degree portable energy storage lighthouse according to claim 2, characterized in that, It also includes a handrail assembly, which includes a handrail and a connecting rod. The handrail is located on the rear side of the box (3), and the connecting rod is fixedly located on the top of the box (3). The handrail includes a frame body (15) and two grips (16). The connecting rod and the rear surface of the box (3) are fixedly connected to the frame body (15), and the two grips (16) are fixed on both sides of the frame body (15). The front surface of the box (3) is provided with anti-collision protrusions (17) at both the upper and lower ends. The fixing mechanism is located at the left and right ends of the front and rear surfaces of the box (3), and the fixing mechanism includes a U-shaped frame (18). The support rod (19) and the limiting structure are provided, with the open end of the U-shaped frame (18) rotatably connected to the support rod (19).

4. The 360-degree portable energy storage lighthouse according to claim 3, characterized in that, The locking mechanism is a latch, which includes a latch body (21) and a buckle (22). The latch body (21) is fixedly installed on the top of the front outer surface of the box (3). The bottom of the lamp post (7) is fitted with a base plate (20). An L plate is provided on the base plate (20) corresponding to the buckle (22). The buckle (22) is connected to the L plate.

5. The 360-degree portable energy storage lighthouse according to claim 1, characterized in that, The circuit module adopts a first electrical module or a second electrical module. The first electrical module includes a battery management system, a charging module, a coordination controller, a lamp driver, and a wireless control module. The discharge socket is a DC discharge socket. The lithium battery and the battery management system are electrically connected, the DC discharge socket is electrically connected to the battery management system, the lamp driver is electrically connected to the DC discharge socket, and the lamp is electrically connected to the lamp driver. The AC charging socket is electrically connected to the charging module, and the charging module is electrically connected to the battery management system. The battery management system supplies power to the coordination controller, and the coordination controller exchanges data with the battery management system and the charging module via wired communication; The light sensor, the adjustment device, and the display screen are all communicatively connected to the coordination controller, and the light sensor and the adjustment device both send data to the coordination controller, while the coordination controller sends operating status data to the display screen. The wireless control module is wirelessly connected to the coordination controller, and the wireless control module is also wirelessly connected to a remote APP controller. The lamp driver is wirelessly connected to the wireless control module.

6. The 360-degree portable energy storage lighthouse according to claim 5, characterized in that, The second electrical module includes a battery management system, a bidirectional inverter, a lamp driver, the coordination controller, and the wireless control module; the discharge socket is an AC discharge socket. The lithium battery and the battery management system are electrically connected, the bidirectional inverter is electrically connected to the battery management system, the AC charging socket and the AC discharging socket are both electrically connected to the bidirectional inverter, the lamp driver is electrically connected to the AC discharging socket, and the lamp is electrically connected to the lamp driver. The battery management system supplies power to the coordination controller, and the coordination controller exchanges data with the battery management system and the bidirectional inverter via wired communication. The light sensor, the regulating device, and the display screen are all communicatively connected to the coordinating controller, and the light sensor and the regulating device both send data to the coordinating controller, while the coordinating controller sends operating status data to the display screen. The wireless control module is wirelessly connected to the coordinating controller, and the wireless control module is also wirelessly connected to a remote APP controller. The lighting driver is wirelessly connected to the wireless control module.

7. A control method for a portable energy storage lighthouse, applied to the 360-degree illumination portable energy storage lighthouse as described in any one of claims 1-6, characterized in that, Includes the following steps: S1: Real-time monitoring of ambient light intensity via a light sensor; S2: When the ambient light intensity is lower than a preset threshold, the lights will be automatically turned on; S3: Receive external control signals through the wireless communication module, and adjust the brightness, flashing mode, or on / off state of the lamps based on the control signals; S4: Send matrix control signals to multiple portable energy storage lighthouses via a remote control application to coordinate the lighting operations of multiple lighthouses.

8. The control method for the portable energy storage lighthouse according to claim 7, characterized in that, The remote control application runs on a mobile device or computer and communicates with the lighthouse via a wireless network. The adjustment of the brightness, flashing mode, or on / off state of the lamp is achieved through a wireless controller, which is integrated into the human-machine interface control panel. The matrix control signal includes synchronous control of the opening, closing, brightness adjustment, or flashing mode of multiple lighthouses to achieve uniform coverage of the lighting area; The matrix control signal supports group control of multiple lighthouses to achieve independent lighting strategies for different areas.

9. The control method for the portable energy storage lighthouse according to claim 7, characterized in that, The step of automatically starting the lights also includes: automatically turning off the lights when the ambient light intensity recovers to a level higher than a preset threshold.

10. The control method for the portable energy storage lighthouse according to claim 7, characterized in that, The control method also includes monitoring the battery status through a battery management system and adjusting the power output of the lamps according to the battery status.

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