Intelligent operation control system for brushless direct current motor

Abstract

The invention discloses an intelligent operation control system for a brushless direct current motor, and belongs to the technical field of green energy storage and energy consumption distribution. The multi-source power grid system mainly comprises an intelligent control module, the intelligent control module comprises a data recording unit, a logic judgment unit and a timing unit, and the data recording unit records green energy storage energy and the amount of tourists entering a scenic spot; the intelligent detection module comprises a temperature measurement unit and a pressure measurement unit, the temperature measurement unit is electrically connected with the temperature measurement piece, and the pressure measurement unit is electrically connected with the pressure measurement piece and the mass sensor; the intelligent driving module comprises a solar energy storage unit, a fan blade regulation and control unit and an energy storage monitoring module, the energy storage monitoring module comprises a green energy monitoring unit and a conventional electric energy monitoring unit, and the green energy monitoring unit is connected with a data recording unit.

Description

Technical Field

[0001] The present application relates to the technical field of green energy storage and energy consumption distribution, and specifically to an intelligent operation control system for a brushless DC motor. Background Art

[0002] Energy is the basis of human survival. Electricity, as an important secondary energy source, has a decisive and irreplaceable impact on economic and social development. However, the thermal power generation industry has problems such as high energy consumption, low efficiency and large pollutant emissions; The current solar energy storage method is to install solar energy storage panels in fixed areas. The commonly used method is to use reinforcements to install solar panels on hard walls or the ground. At the same time, a large area of ​​solar panels is used to prolong the energy storage time, and the brushless DC motor is driven to operate through green energy storage. However, the inventor of the present application found that by laying solar panels over a large area, the natural beauty of the scenic area is destroyed. The temperature around most solar panels is higher than that of the surrounding environment, which will cause damage to the vegetation in the scenic area and cannot meet the tourism needs of the scenic area. At the same time, the energy storage efficiency of a single solar panel is low, so it is necessary to provide a brushless DC motor intelligent operation control system to solve the above problems.

[0003] It should be noted that the above information disclosed in this background technology section is only for understanding the background technology of the present inventive concept, and therefore, it may contain information that does not constitute the prior art. Summary of the invention

[0004] The inventors have found through research that: in the current solar energy and wind energy dual-circuit energy storage mode, through reasonable design and optimization, the load change can be adjusted at the energy supply end of the scenic spot. In the process of adjusting the energy supply mode, firstly, ensure the safe and stable operation of the power supply, and then select high-quality equipment to extend the power use time and other measures to achieve the purpose of energy saving and consumption reduction. Finally, strengthen the management of the grid structure and improve the construction of hardware facilities to improve the power factor and maximize the economic benefits. However, in the current solar energy and wind energy storage process, it is necessary to lay energy storage equipment over a large area, and the laying area is selected as a large area of ​​​​open space, which directly or indirectly damages the tourism income of the scenic spot; In order to install solar energy storage equipment and wind energy storage equipment, usually when selecting the installation area, a hidden area that does not block the sight of tourists is selected, and then the storage efficiency of solar energy and wind energy (hereinafter referred to as green energy) is improved by using staggered time periods; In order to improve the energy storage efficiency, the peak energy storage time of the energy storage equipment is staggered with the time when tourists enter the park. Usually, when there are few people in the scenic area, the height of the energy storage equipment is adjusted higher to increase the contact area between the solar panel and the sun, and the contact strength between the airflow and the fan blades. At the same time, it is necessary to constantly adjust the contact angle between the solar panel and the sun's incident point to extend the energy storage efficiency of green energy within a limited time. At present, the installation of energy storage equipment in the selected areas of the scenic spot first infringes on the normal income of the scenic spot. Secondly, there is no specific system to regulate the energy switching between green energy and normal electricity. The single adjustment method is that after the green energy is fully stored, the normal electricity supply is disconnected, and the green energy is used to supply energy. After waiting for the green energy to be consumed, the normal electricity is reconnected, and the green energy storage equipment continues to store electricity repeatedly. In the process, the random switching between green energy and normal electricity cannot be solved. That is, there are certain high-energy consumption time periods in the normal electricity supply. Increasing the normal electricity supply will increase the electrical load and increase the loss in the electricity transmission process. During this time period, green energy cannot be cut in for replenishment. This phenomenon has become a problem that needs to be urgently solved in the current green energy supply in scenic spots.

[0005] Based on the above problems existing in the prior art, the purpose of the embodiment of the present application is to provide a brushless DC motor intelligent operation control system, select the best position when installing the energy storage device, and adjust the energy storage device according to the flow of people in the scenic area to store energy in sections; Intervene in the connection and disconnection of green energy in real time according to the scenic area's power load, and improve green energy storage and functional efficiency; The technical solution adopted by the present application to solve the technical problem is: a brushless DC motor intelligent operation control system, including a substrate and a solar energy component installed on the top of the substrate, used to store energy using light energy and drive the substrate to change the angle and orientation; a wind energy component installed below the substrate, used to store energy using wind energy and adjust the angle of the fan blade according to the wind direction; a base, the base is provided with bolt holes for fixing the base; a rod sleeve is provided on the top of the base; a first lifting rod is slidably installed in the rod sleeve; the rod sleeve and the first lifting rod are provided with two groups; a support column is fixedly installed on the top of the first lifting rod; Furthermore, the solar energy component includes: a first carrier plate and a second carrier plate; a hinge assembly, which mounts the first carrier plate and the second carrier plate on the side wall of the substrate; the hinge assembly is controlled by system induction, and the first carrier plate and the second carrier plate are flipped by controlling the hinge assembly; a photovoltaic panel, which is detachably mounted on the first carrier plate, the second carrier plate and the substrate; a storage grid, which is fixedly mounted on the top of the substrate and does not contact the photovoltaic panel; an independent battery is provided at the bottom of the storage grid, and the independent battery is electrically connected to the charging hole; a cover rod, which is provided on the side wall plate of the second carrier plate; the charging hole is adapted to the cover rod; a universal joint ball, which is fixedly mounted on the bottom of the substrate; a second lifting rod, which is slidably mounted on the top of the support column; the second lifting rod is provided with a groove matching the universal joint ball, and the universal joint ball is arranged in the groove; the wind energy component is detachably mounted on the side wall of the support column; Furthermore, the wind energy assembly includes: a reinforcement sleeve fixedly mounted on the side wall of the support column; a slide groove provided on the side wall of the reinforcement sleeve; an adjustment rod slidably mounted in the slide groove; a fan blade fixedly mounted on the adjustment rod; one adjustment rod and one fan blade form a group of fan blades, and the slide groove is provided with a plurality of groups of fan blades; a magnetic suction groove is provided on the side wall of the support column, and a magnetic suction lamp is provided in the magnetic suction groove; The beneficial effects of the present application are as follows: the present application provides a brushless DC motor intelligent operation control system, which can intelligently regulate the solar energy components and wind energy components by providing solar energy components and wind energy components. The solar energy components drive the solar panels to track and store energy, and the wind blades adjust the angles of the wind blades according to the direction of the airflow to receive the airflow with the maximum area. At the same time, the stored electrical energy of the solar energy components and wind energy components is reasonably distributed according to the system, saving energy consumption in the scenic area without affecting the landscape of the scenic area. BRIEF DESCRIPTION OF THE DRAWINGS

[0006] The present application is further described below in conjunction with the accompanying drawings and embodiments.

[0007] In the figure: Figure 1 It is a schematic diagram of the expansion of the first carrier plate and the second carrier plate in the present application; Figure 2 A schematic diagram of a first carrier plate and a second carrier plate in the present application being closed; Figure 3 for Figure 1 Schematic diagram of the enlarged structure of the A area in the middle; Figure 4 is a schematic diagram of wind energy components; Figure 5 This is a schematic diagram of a multi-source power grid system in this application; Among them, the reference numerals in the figure are: 1. Base plate; 2. First bearing plate; 3. Hinge assembly; 4. Second bearing plate; 5. Photovoltaic panel; 6. Battery grid; 7. Charging port; 8. Cover rod; 9. Support column; 10. Fan blade; 11. Adjustment rod; 12. Second lifting rod; 13. Universal joint ball; 14. Magnetic suction groove; 15. First lifting rod; 16. Rod sleeve; 17. Base; 18. Slide groove; 19. Reinforcement sleeve. DETAILED DESCRIPTION

[0008] Now, the present application will be described in detail with reference to the accompanying drawings. This figure is a simplified schematic diagram, which only illustrates the basic structure of the present application in a schematic manner, and therefore only shows the components related to the present application.

[0009] like Figure 1-5 As shown, the present application provides a brushless DC motor intelligent operation control system, comprising: substrate1; The solar module is installed on the top of the substrate 1 and is used to store energy using light energy and drive the substrate 1 to change its angle and orientation; The wind energy component is installed below the base plate 1 and is used to store energy using wind energy and adjust the angle of the fan blades according to the wind direction; A base 17, wherein the base is provided with bolt holes for fixing the base 17; A rod sleeve 16 is provided on the top of the base 17; A first lifting rod 15 is slidably mounted in the rod sleeve 16, and the first lifting rod 15 is electrically connected to the first driving part; There are two sets of rod sleeves 16 and first lifting rods 15. The two sets of rod sleeves 16 and first lifting rods 15 ensure that the energy storage equipment is raised to a sufficient height, and the surrounding green plants and obstructions will not affect the supply of green energy. At the same time, personnel need to select a good location to install the energy storage equipment; A support column 9 is fixedly mounted on the top of the first lifting rod 15; A tracker is provided on the top of the substrate 1, and the tracker is used to track the direction of direct sunlight.

[0010] Solar components include: A first carrying plate 2 and a second carrying plate 4; A temperature measuring component is provided on the top of the substrate 1, and the temperature measuring component is used to test the temperature around the energy storage device. A pressure measuring component is provided on the side wall of the fan blade 10, and the pressure measuring component is used to test the air flow velocity around the energy storage device. One end of the hinge assembly 3 is fixedly connected to the base plate 1, and the other end is fixedly connected to the first supporting plate 2 and the second supporting plate 4; The hinge assembly 3 is controlled by system induction, and the hinge assembly 3 is electrically connected to the second driving unit, and the first supporting plate 2 and the second supporting plate 4 are adjusted to flip by controlling the hinge assembly 3; The photovoltaic panel 5 is detachably mounted on the first carrier plate 2, the second carrier plate 4, and the substrate 1. The photovoltaic panel 5 is concave-convex to increase the heating area and improve the photovoltaic energy storage efficiency. The photovoltaic panel 5 stores electricity and transmits it to the first storage box. The wind energy component stores electricity and transmits it to the second storage box. The first storage box and the second storage box are connected to a conventional power supply line, and there is a distribution box control line. The electricity storage grid 6 is fixedly mounted on the top of the substrate 1 and does not contact the photovoltaic panel 5; An independent storage battery is provided at the bottom of the storage grid 6, and the independent storage battery is electrically connected to the charging hole 7; A mass sensor is provided in the power storage grid 6, and the mass sensor is used to detect whether a drone has landed on the power storage grid 6; A cover rod 8 is provided on a side wall plate of the second carrying plate 4; The charging hole 7 is adapted to the cover rod 8. When the first carrying plate 2 and the second carrying plate 4 are closed, the cover rod 8 just covers the charging hole 7, thereby protecting the charging hole 7 from damage by the external environment. The universal shaft ball 13 can rotate at will on the top of the second lifting rod 12, and the universal shaft ball 13 is electrically connected to the third driving part; A second lifting rod 12 is slidably mounted on the top of the support column 9, and the second lifting rod 12 is electrically connected to the fourth driving unit; The second lifting rod 12 is provided with a groove matching the universal shaft ball 13, and the universal shaft ball 13 is arranged in the groove; The wind energy component is detachably mounted on the side wall of the support column 9 .

[0011] Wind energy components include: A reinforcement sleeve 19 is fixedly mounted on the side wall of the support column 9; The slide groove 18 is provided on the side wall of the reinforcement sleeve 19; The adjusting rod 11 is slidably mounted in the slide groove 18; The fan blade 10 is fixedly mounted on the adjustment rod 11; One adjusting rod 11 and one fan blade 10 form a set of fan blades, and a plurality of sets of fan blades are arranged on the slide 18; A magnetic suction groove 14 is provided on the side wall of the support column 9, and a magnetic suction lamp is provided in the magnetic suction groove 14; The magnetic suction groove 14 is powered on, and the scenic spot personnel can install the magnetic suction lamp in the magnetic suction groove 14 of the appropriate energy storage device according to the path design, and control the start and stop of the magnetic suction lamp through the system.

[0012] Including a multi-source power grid system, the multi-source power grid system includes: Intelligent control module, the intelligent control module includes a data recording unit, a logic judgment unit and a timing unit, the data recording unit records the amount of green energy storage and the number of tourists entering the scenic area; An intelligent detection module, the intelligent detection module includes a temperature measuring unit and a pressure measuring unit, the temperature measuring unit is electrically connected to the temperature measuring piece, and the pressure measuring unit is electrically connected to the pressure measuring piece and the mass sensor; Intelligent drive module, the intelligent drive module includes a solar energy storage unit and a wind blade control unit; The solar energy storage unit includes a photovoltaic start-stop unit, a tracking unit and a charging port start-stop unit. The photovoltaic start-stop unit is electrically connected to the second lifting rod 12 and the hinge assembly 3, and the tracking unit is electrically connected to the universal shaft ball 13. Energy storage monitoring module, which includes green energy monitoring and conventional electric energy monitoring. Green energy monitoring is connected with the data recording unit; Green energy monitoring is used to monitor solar energy storage and wind energy storage; Conventional power monitoring is used to monitor the load of conventional power supply channels; Regarding the system setting, a control room is established, where personnel can control the scenic area equipment; The system includes a cloud platform, data in a data recording unit is recorded in a storage device, and the data recording unit is connected to a CPU, and the CPU is connected to a multi-source power grid system; Green energy is classified as multi-type power sources, conventional power supply equipment and conventional power supply channels are classified as multi-type loads, and multi-type power sources and multi-type loads are connected to CPU and storage devices through PLC and other IoT communication technologies. CPU and storage devices are connected to the cloud platform through MQTT and other transmission protocols to ensure that all data is backed up on the cloud platform; The multi-source power grid system uses a CPU that meets the requirements of single-core multi-core, with a main frequency of no less than 700MHz, a memory of no less than 512MB, and a FLASH of no less than 1GB; The multi-source power grid system terminal realizes full data collection and full control downwards, and exchanges key operating data with the cloud platform in real time upwards. At the same time, it realizes online monitoring, intelligent analysis and decision-making control of the operating status of multiple types of power sources, controllable loads, and multi-voltage distribution networks, and supports computing sharing and data interaction with the cloud. In terms of the equipment interface in the control room, RS485 and RS232 interfaces are included downward, which is convenient for access to various electrical equipment to realize data collection and control functions of various electrical equipment. The data collection includes wind energy storage and related data, solar energy storage and related data. In terms of upward, the equipment includes an Ethernet port, which is convenient for interaction with the external network and the cloud. At the same time, the power distribution equipment in the control room has the functions of sharing, storing, processing, uploading and so on, and multiple power supply routes are used to execute synchronously according to different power supply requirements, realizing a solution of one power distribution equipment for multiple requirements, saving costs; The solar energy storage equipment and wind energy storage equipment are connected to the data recording unit. Independent monitoring modules are installed at the solar energy storage equipment and wind energy storage equipment. They are all controlled by the energy storage monitoring module. The solar energy storage equipment and wind energy storage equipment transmit the processed storage power data to the control room in real time. Conventional power supply equipment also transmits the real-time power consumption to the control room. The dual-channel data is monitored in real time and managed by the logic judgment unit. The drive instructions obtained by the management are issued through the intelligent drive module. This process integrates multiple information to obtain the most reasonable circuit allocation selection; For the data processing of the above system, the IoT data collection and centralized processing method is adopted to centralize the multi-channel data into one device (i.e., the control room). The data fusion technology is used to perform various network processing on the large amount of raw data collected by the sensor nodes to remove the redundant information, reduce data conflicts, and alleviate network congestion, thereby effectively saving energy costs and extending the life of the network. The operation of the multi-source power grid system includes the following method steps: The first step is to start the multi-source power grid system. The intelligent control module determines whether the number of tourists entering the scenic area meets the standard. The number of tourists entering the scenic area is set as K. If the number of tourists is lower than K, it means that the standard is met. If it is met, the first instruction for the operation of the photovoltaic panel is turned on. Then the intelligent detection module detects the temperature around the energy storage device in real time through the temperature measurement unit. The temperature around the energy storage device is set as P. The P value is adjusted every quarter to adapt to different climates. If the temperature around the energy storage device is higher than P, it means that the standard is met. If the temperature meets the standard, the second instruction for the operation of the photovoltaic panel is turned on. If the first instruction and the second instruction are turned on at the same time, the photovoltaic panel starts to operate; The second step is to monitor the power load in the scenic area in real time and set the rated load value T. If the power load in the scenic area exceeds T, the green energy will be connected to the conventional power supply channel of the scenic area; The third step is to determine whether green energy can be connected to conventional power supply channels through green energy storage data; The fourth step is to predict the scenic spot’s energy supply strategy for the day based on the scenic spot’s tourist data.

[0013] The timing of solar energy storage and wind energy storage in the first step is determined as follows: Confirm that both wind energy storage and solar energy storage can operate independently, but they are all under the same premise, that is, the number of tourists in the scenic area is lower than K. If the number of tourists in the scenic area is lower than K, the energy storage equipment will be increased, and the wind energy storage will start to operate, and the photovoltaic energy storage will continue to make judgments; The process of the energy storage device rising is as follows: the first lifting rod 15 rises from the rod sleeve 16 to drive the wind energy component and the solar energy component to rise to a state where there are no obstructions around. This is the first stage of the equipment rising. At this time, the wind energy component can directly operate to store energy. Even if the energy storage device does not rise, the wind energy component still continues to operate, but the efficiency is extremely low. The second lifting rod 12 rises from the support column 9 to drive the solar energy component to rise. This is the second stage of equipment rising, which effectively separates the solar energy component and the wind energy component, making it easier to adjust the angle of the solar energy component and increasing the mutual assistance efficiency between the airflow and the wind energy component. The solar module will only perform the second stage of rising when the photovoltaic panel 5 is in operation. During the unnecessary time period, only the wind energy module is in operation to ensure the stability of the energy storage device, which is the first purpose; When the photovoltaic panel 5 is in operation, the tracking device above it starts to operate, and transmits the real-time direct sunlight angle to the tracking unit, which controls the universal joint ball 13 to rotate and drive the photovoltaic panel 5 to adjust to the angle of direct sunlight; The timing unit rotates the universal joint ball 13 once every H time, where H is the artificially set time; The photovoltaic panel 5 is judged to be in operation when the temperature around the energy storage device measured by the temperature measuring component reaches P, and then the photovoltaic panel 5 starts to operate; The first carrier plate 2 and the second carrier plate 4 are unfolded through the hinge assembly 3 to expose the photovoltaic panel 5 and start photovoltaic energy storage; There are standard prerequisites for the energy storage of photovoltaic panels 5. There are many flying creatures in the scenic area. If the photovoltaic energy storage is carried out under insufficient light conditions, the possibility of damage to the photovoltaic panels 5 will increase. At the same time, the energy storage efficiency is low. Considering the two comprehensively, the photovoltaic panels 5 will be turned on only when the high-efficiency photovoltaic energy storage is confirmed. There are three pressure measuring pieces, which are located at the upper end, middle end and lower end of the side wall of the fan blade 10. The pressure measuring pieces transmit the detected real-time data to the pressure measuring unit. The pressure measuring unit determines the pressure values ​​at the upper end, middle end and lower end of the side wall of the fan blade 10, and continuously rotates the position of the fan blade 10 by adjusting the adjusting rod 11, so that the detection value of the pressure measuring piece at the middle end of the side wall of the fan blade 10 is maximized, so that the fan blade 10 can bear the maximum impact force of the airflow to the maximum extent, while ensuring that the force on the fan blade 10 is uniform and the service life is extended.

[0014] The determination method for the interactive use of green energy and conventional electric energy in the second step is as follows: Set the green energy full capacity to L1 and the rated delimitation value to L2. If it is lower than L2, the green energy will not be connected to the conventional power supply channel and will only meet the self-sufficiency of the energy storage equipment. Only when it is higher than L2 will it meet the standard of connecting to the conventional power supply channel. When the power load of the scenic area is higher than T, green energy is connected to the power supply channel to reduce the load of the conventional power supply channel. Considering the future load growth and the environmental pollution and cost issues that may be caused by the power grid transformation process, it is not recommended to directly add distribution stations in the scenic area, but to selectively and predictively apply green energy; By adding energy storage equipment through peripherals, the capacity of the power grid can be increased, and additional power supply channels can be selected; By selecting appropriate and efficient power supply units, the goal of reducing energy consumption can be achieved.

[0015] The method for predicting whether to access green energy in the fourth step is as follows: The data recording unit will calculate the number of people entering the park every day before midnight and set the number error value m. If the number of people entering the park is within the Km range, the green energy will be directly connected to the power supply channel to minimize the power supply load of the conventional power supply channel. If the number of visitors is within the Km range, it means that the number of people calculated before midnight is close to the number of visitors set by the scenic spot, which means that the scenic spot can only accommodate a small number of people on that day. If a certain number of tourists enter the park on that day, the load on public power supply equipment will be increased, and green energy will be connected in advance to directly avoid exceeding the conventional power supply load and eliminate safety hazards.

[0016] When the mass sensor detects that a drone is landing above, it sends a command to the pressure measuring unit, and the pressure measuring unit sends a command to drive the charging port start-stop unit to open the charging port to charge the drone. Drones are always available in the scenic area. The drones fly at a set time and automatically find the nearest battery cell 6; The storage grid 6 will only be opened when the first carrier plate 2 and the second carrier plate 4 are unfolded; Photovoltaic and wind energy storage processes are carried out through energy storage equipment, while taking into account the charging station for drones in the scenic area. Magnetic lights can be installed on the required paths.

[0017] Based on the above ideal embodiments of the present application, the relevant staff can make various changes and modifications without departing from the scope of the present application through the above description. The technical scope of this application is not limited to the contents of the specification, and its technical scope must be determined according to the scope of the claims.

Claims

1. A brushless DC motor intelligent operation control system, characterized in that: include: substrate(1); A solar energy component is installed on the top of the substrate (1) and is used to utilize light energy to store energy and drive the substrate (1) to change its angle and orientation; A wind energy component, installed below the base plate (1), used to utilize wind energy to store energy and adjust the angle of the fan blades according to the wind direction; A base (17), wherein the base is provided with bolt holes for fixing the base (17); A rod sleeve (16) is arranged on the top of the base (17); A first lifting rod (15) is slidably mounted in the rod sleeve (16); The rod sleeve (16) and the first lifting rod (15) are provided in two groups in total; A support column (9) fixedly mounted on the top of the first lifting rod (15); A tracker is provided on the top of the substrate (1), and the tracker is used to track the direction of direct sunlight.

2. The brushless DC motor intelligent operation control system according to claim 1, characterized in that: The solar energy component comprises: A first carrying plate (2) and a second carrying plate (4); A hinge assembly (3) is used to mount the first bearing plate (2) and the second bearing plate (4) on the side wall of the base plate (1); The hinge assembly (3) is system-sensing controlled, and the first supporting plate (2) and the second supporting plate (4) are adjusted to flip by controlling the hinge assembly (3); A photovoltaic panel (5) is detachably mounted on the first carrier plate (2), the second carrier plate (4), and the base plate (1); A power storage grid (6) is fixedly mounted on the top of the substrate (1) and is not in contact with the photovoltaic panel (5); An independent storage battery is provided at the bottom of the power storage grid (6), and the independent storage battery is electrically connected to the charging hole (7); A cover rod (8) is arranged on a side wall plate of the second bearing plate (4); The charging hole (7) is adapted to fit the cover rod (8); A universal joint ball (13) fixedly mounted on the bottom of the base plate (1); A second lifting rod (12) is slidably mounted on the top of the support column (9); The second lifting rod (12) is provided with a groove matching the universal shaft ball (13), and the universal shaft ball (13) is arranged in the groove; The wind energy component is detachably mounted on the side wall of the support column (9).

3. The brushless DC motor intelligent operation control system according to claim 1, characterized in that: The wind energy component comprises: A reinforcement sleeve (19) fixedly mounted on the side wall of the support column (9); A slide groove (18) provided on a side wall of the reinforcement sleeve (19); An adjusting rod (11) is slidably mounted in the slide groove (18); The fan blade (10) is fixedly mounted on the adjustment rod (11); One adjusting rod (11) and one fan blade (10) form a set of fan blades, and a plurality of sets of fan blades are provided on the slide groove (18); A magnetic attraction groove (14) is provided on the side wall of the support column (9), and a magnetic attraction lamp is provided in the magnetic attraction groove (14); The magnetic suction groove (14) is powered on, and scenic spot personnel can install a magnetic suction lamp in a suitable energy storage device magnetic suction groove (14) according to the route design, and control the start and stop of the magnetic suction lamp through the system.

4. The brushless DC motor intelligent operation control system according to claim 3, characterized in that: A multi-source power grid system is provided, wherein the multi-source power grid system comprises: An intelligent control module, the intelligent control module includes a data recording unit, a logic judgment unit and a timing unit, the data recording unit records the amount of green energy storage and the number of tourists entering the scenic area; An intelligent detection module, the intelligent detection module comprising a temperature measuring unit and a pressure measuring unit, the temperature measuring unit is electrically connected to the temperature measuring element, and the pressure measuring unit is electrically connected to the pressure measuring element and the mass sensor; An intelligent driving module, the intelligent driving module comprising a solar energy storage unit and a wind blade control unit; The solar energy storage unit comprises a photovoltaic start-stop unit, a tracking unit and a charging port start-stop unit, the photovoltaic start-stop unit is electrically connected to the second lifting rod (12) and the hinge assembly (3), and the tracking unit is electrically connected to the universal shaft ball (13); An energy storage monitoring module includes green energy monitoring and conventional electric energy monitoring, and the green energy monitoring is connected to a data recording unit.

5. The brushless DC motor intelligent operation control system according to claim 4, characterized in that: The operation of the multi-source power grid system comprises the following method steps: The first step is to start the multi-source power grid system. The intelligent control module determines whether the number of tourists entering the scenic area meets the standard. The number of tourists entering the scenic area is set to K. If the number of tourists is lower than K, it means that the standard is met. If it is met, the first instruction for the operation of the photovoltaic panel is started. Then the intelligent detection module detects the temperature around the energy storage device in real time through the temperature measurement unit. The temperature around the energy storage device is set to P. If the temperature around the energy storage device is higher than P, it means that the standard is met. If the temperature meets the standard, the second instruction for the operation of the photovoltaic panel is started. If the first instruction and the second instruction are started at the same time, the photovoltaic panel starts to operate; The second step is to monitor the power load in the scenic area in real time and set the rated load value T. If the power load in the scenic area exceeds T, the green energy will be connected to the conventional power supply channel of the scenic area; The third step is to determine whether green energy can be connected to conventional power supply channels through green energy storage data; The fourth step is to predict the scenic spot’s energy supply strategy for the day based on the scenic spot’s tourist data.

6. A brushless DC motor intelligent operation control system according to claim 5, characterized in that: The method for determining the timing of solar energy storage and wind energy storage in the first step is as follows: Confirm that both wind energy storage and solar energy storage can operate independently, but they are all under the same premise, that is, the number of tourists in the scenic area is lower than K. If the number of tourists in the scenic area is lower than K, the energy storage equipment will be increased, and the wind energy storage will start to operate, and the photovoltaic energy storage will continue to make judgments; The criterion for judging whether the photovoltaic panel (5) is in operation is that when the temperature around the energy storage device measured by the temperature measuring component reaches P, the photovoltaic panel (5) starts to operate.

7. The brushless DC motor intelligent operation control system according to claim 6, characterized in that: The determination method for the interactive use of green energy and conventional electric energy in the second step is as follows: Set the green energy full capacity to L1 and the rated delimitation value to L2. If it is lower than L2, the green energy will not be connected to the conventional power supply channel and will only meet the self-sufficiency of the energy storage equipment. Only when it is higher than L2 will it meet the standard of connecting to the conventional power supply channel. When the power load of the scenic area is higher than T, green energy is connected to the power supply channel.

8. The brushless DC motor intelligent operation control system according to claim 7, characterized in that: The method for predicting whether to access green energy in the fourth step is as follows: The data recording unit will calculate the number of people entering the park every day before midnight and set the number error value m. If the number of people entering the park is within the (Km) range, green energy will be directly connected to the power supply channel to minimize the power supply load of the conventional power supply channel.

9. The brushless DC motor intelligent operation control system according to claim 8, characterized in that: When the mass sensor detects that a drone is landing above, it sends a command to the pressure measuring unit, and the pressure measuring unit sends a command to drive the charging port start-stop unit to open the charging port to charge the drone. Drones are always available in the scenic area. The drones fly at a set time and automatically search for the nearest battery grid (6).

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