Control method of solar lamp system capable of continuously lighting based on dichotomy

Abstract

The invention discloses a dichotomy-based solar lamp system control method capable of continuously lighting, and relates to the technical field of monitoring analysis, and the method comprises the steps: information collection: collecting energy information and environment information corresponding to a target solar cell panel, and obtaining basic information corresponding to a target solar lamp system; information analysis: carrying out analysis processing on the energy information and the environment information corresponding to the target solar cell panel and the basic information corresponding to the target solar lamp system, carrying out feasibility analysis on the target solar lamp system according to an analysis processing result, and formulating an adjustment strategy according to a feasibility analysis result; brightness adjustment: responding to the adjustment strategy, and outputting an early warning signal based on the target solar lamp system; and feedback evaluation: evaluating the adjusted target solar lamp system, determining a satisfaction evaluation coefficient corresponding to the target solar lamp system, and performing control adjustment based on the satisfaction evaluation coefficient. The LED lamp has the effect of improving the lighting efficiency.

Description

Technical Field

[0001] The present application relates to the field of monitoring and analysis technology, and in particular to a control method for a solar lamp system with sustainable lighting based on a dichotomy method. Background Art

[0002] As the global demand for renewable energy increases, solar light systems have gradually become the mainstream choice for outdoor lighting due to their environmentally friendly and sustainable characteristics. These systems usually rely on solar panels to convert solar energy into electrical energy and store it in batteries to power the lamps at night. However, due to the changes in ambient light intensity and the limitations of battery capacity, how to effectively manage and optimize the brightness and energy consumption of solar lights has become an urgent problem to be solved. In recent years, the development of intelligent control technology has provided new ideas for the optimization of solar light systems, among which algorithm-based dynamic adjustment methods have gradually attracted attention. As a simple and efficient algorithm, the binary search method can quickly find the optimal solution by gradually narrowing the search interval. Therefore, using the binary search method to adjust the light intensity output of solar lights can not only improve the energy efficiency of the system, but also extend the working time of the lamp and the service life of the battery.

[0003] In the related art, traditional solar lamp control systems usually adopt fixed brightness settings and lack the ability to respond to ambient light intensity and battery power in real time. This control method easily leads to energy waste and battery over-discharge, shortening the battery life. In addition, due to the variability of environmental conditions, fixed brightness settings are difficult to provide the best lighting effect in various situations, greatly reducing lighting efficiency, and there is room for improvement. Summary of the invention

[0004] In view of the deficiencies of the prior art, the present application provides a control method for a solar lamp system with sustainable lighting based on dichotomy.

[0005] In the first aspect, the present application provides a method for controlling a solar lamp system with sustainable lighting based on a dichotomy method, which adopts the following technical solution: A method for controlling a solar lamp system with sustainable lighting based on dichotomy, comprising the following steps: Information collection: collecting energy information and environmental information corresponding to the target solar panel through a preset collection device, and obtaining basic information corresponding to the target solar lamp system; Information analysis: analyzing and processing the energy information, environmental information and basic information of the target solar panel and the target solar light system, and conducting a feasibility analysis on the target solar light system based on the results of the analysis and processing, and formulating an adjustment strategy based on the results of the feasibility analysis; Brightness adjustment, in response to the adjustment strategy, and outputting a warning signal based on the target solar light system; Feedback evaluation is performed to evaluate the adjusted target solar lamp system, and to determine the satisfaction evaluation coefficient corresponding to the target solar lamp system, and to perform control adjustment based on the satisfaction evaluation coefficient.

[0006] Preferably, the energy information corresponding to the target solar panel includes energy output data and energy storage data corresponding to the target solar panel; The environmental information corresponding to the target solar panel includes light intensity data and temperature data corresponding to the environment in which the target solar panel is located; The basic information corresponding to the target solar lamp system includes brightness data and energy efficiency data corresponding to the lamps in the target solar lamp system.

[0007] Preferably, the energy information and environmental information corresponding to the target solar panel and the basic information corresponding to the target solar lamp system are analyzed and processed, specifically including: Obtain the basic information corresponding to the target solar light system, and extract the preset maximum brightness corresponding to the lamps in the target solar light system and preset minimum brightness And confirm the first brightness requirement of the lamps in the target solar lamp system through dichotomy ; By formula , confirm the required power of the lamps in the target solar lamp system , and within a preset time interval, the formula , confirm the required energy evaluation coefficient corresponding to the required electric power of the lamps in the target solar lamp system ,in, Represented as the energy efficiency data corresponding to the lamps in the target solar lamp system, Expressed as the correction coefficient corresponding to the required electric power, Expressed as a preset time interval; Obtain energy information and environmental information corresponding to the target solar panel, and extract energy output data corresponding to the target solar panel from the energy information corresponding to the target solar panel and energy storage data , and confirm the environmental adjustment coefficient corresponding to the target solar panel from the environmental information corresponding to the target solar panel ; By formula , confirm the available energy evaluation coefficient corresponding to the target solar panel ,in, Expressed as the preset average energy output data, Expressed as a preset correction factor.

[0008] Preferably, a feasibility analysis is performed on the target solar lamp system according to the results of the analysis and processing, and an adjustment strategy is formulated according to the results of the feasibility analysis. Specifically, it includes: Obtain the energy demand evaluation coefficient corresponding to the required electrical power of the lamps in the target solar lamp system Available energy evaluation coefficient corresponding to the target solar panel , and perform difference calculation to confirm the energy assessment coefficient difference , and the energy evaluation coefficient difference The difference between the preset value and the Make a comparison; If the energy evaluation coefficient difference In When , it is determined that the first brightness requirement corresponding to the lamp in the target solar lamp system is feasible, and there is no need to formulate an adjustment strategy; If the energy evaluation coefficient difference Lower than When , then through the dichotomy in Identify the second upward brightness requirement of the lamps in the target solar lamp system , and the second upward brightness requirement of the lamps in the target solar lamp system Performing analysis to determine whether the second upward brightness requirement is feasible; If the energy evaluation coefficient difference Higher than When , then through the dichotomy in Identify the second downward brightness requirement of the lamps in the target solar lamp system , and the second downward brightness requirement corresponding to the lamps in the target solar lamp system An analysis is performed to determine whether the second downward brightness requirement is feasible.

[0009] Preferably, the environmental adjustment coefficient corresponding to the target solar panel is determined from the environmental information corresponding to the target solar panel, specifically including: Select a time window and obtain the environmental information corresponding to the target solar panel, and extract the light intensity data corresponding to each time node in the environment where the target solar panel is located. and temperature data ,in, It is represented by the number corresponding to each time node. ; Extract the light intensity data and temperature data corresponding to the target solar panel under the test condition from the cloud database, and mark the light intensity data and the temperature data as the standard light intensity data corresponding to the target solar panel and standard temperature data ; By formula , confirm the environmental adjustment factor corresponding to the target solar panel ,in, Expressed as the temperature coefficient corresponding to the preset target solar panel, It is expressed as the total number of time nodes. They are respectively represented as preset weight coefficients.

[0010] Preferably, the adjusted target solar lamp system is evaluated, specifically including: In the selected time period, the trouble-free operation time data corresponding to the target solar lamp system is collected from the operation record of the target solar lamp system, and the user feedback data corresponding to the target solar lamp system is confirmed through a preset user interaction platform.

[0011] Preferably, determining the satisfaction evaluation coefficient corresponding to the target solar lamp system and performing control adjustment based on the satisfaction evaluation coefficient specifically includes: By formula , confirm the satisfaction evaluation coefficient corresponding to the target solar lamp system ,in, Represented as the total operating time data corresponding to the target solar lamp system, Represented as the preset reference feedback threshold, It is represented as a preset weight coefficient, and e is represented as a natural constant; The satisfaction evaluation coefficient corresponding to the target solar lamp system The preset satisfaction evaluation threshold interval Make a comparison; If the satisfaction evaluation coefficient of the target solar lamp system When the target solar lamp system needs to be maintained; If the satisfaction evaluation coefficient of the target solar lamp system In When the target solar lamp system is adjusted, If the satisfaction evaluation coefficient of the target solar lamp system , then there is no need to adjust the target solar lamp system.

[0012] In the second aspect, the present application provides a solar lamp system control system based on dichotomy for sustainable lighting, which adopts the following technical solutions: A solar lamp system control system with sustainable lighting based on dichotomy, comprising: An information collection module is used to collect energy information and environmental information corresponding to the target solar panel through a preset collection device, and obtain basic information corresponding to the target solar lamp system; An information analysis module is used to analyze and process the energy information and environmental information corresponding to the target solar panel and the basic information corresponding to the target solar light system, and to perform a feasibility analysis on the target solar light system according to the results of the analysis and processing, and to formulate an adjustment strategy according to the results of the feasibility analysis; A brightness adjustment module, used to respond to the adjustment strategy and output a warning signal based on the target solar lamp system; The feedback evaluation module is used to evaluate the adjusted target solar lamp system, determine the satisfaction evaluation coefficient corresponding to the target solar lamp system, and perform control adjustment based on the satisfaction evaluation coefficient.

[0013] In a third aspect, the present application provides a computer-readable storage medium storing instructions, which, when executed on a computer, enable the computer to execute any one of the above-mentioned methods for controlling a solar lamp system with sustainable lighting based on dichotomy.

[0014] In summary, the present application includes at least one of the following beneficial technical effects: 1. The present invention provides a control method for a solar lamp system with sustainable lighting based on a dichotomy method, which collects and analyzes energy information, environmental information and basic information corresponding to a target solar panel and a target solar lamp system, thereby confirming the required energy evaluation coefficient corresponding to the required electric power of lamps in the target solar lamp system and the available energy evaluation coefficient corresponding to the target solar panel, and further confirming the difference in energy evaluation coefficients, comparing the difference in energy evaluation coefficients with a preset difference interval, and confirming the optimal brightness requirement according to the dichotomy method, thereby effectively reducing energy waste and battery over-discharge, thereby effectively improving the battery life; 2. By evaluating the adjusted target solar lamp system and confirming the satisfaction evaluation coefficient corresponding to the target solar lamp system, and comparing the satisfaction evaluation coefficient corresponding to the target solar lamp system with the preset satisfaction evaluation threshold range, the target solar lamp system is controlled and adjusted based on the comparison results, thereby effectively improving the lighting efficiency of the target solar lamp system. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for describing the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

[0016] Figure 1 It is a flow chart of a method for controlling a solar lamp system capable of sustainable lighting based on dichotomy in an embodiment of the present application.

[0017] Figure 2 It is a system schematic diagram of a solar lamp system control for sustainable lighting based on dichotomy according to an embodiment of the present application. DETAILED DESCRIPTION

[0018] The following is combined with Figure 1-2 This application is described in further detail.

[0019] Example 1 The embodiment of the present application discloses a control method of a solar lamp system with sustainable lighting based on dichotomy.

[0020] Reference Figure 1 A method for controlling a solar lamp system with sustainable lighting based on dichotomy includes the following steps: S1. Information collection, collecting energy information and environmental information corresponding to the target solar panel through a preset collection device, and obtaining basic information corresponding to the target solar lamp system; S2. Information analysis: analyzing and processing the energy information, environmental information corresponding to the target solar panel and the basic information corresponding to the target solar light system, and conducting a feasibility analysis on the target solar light system based on the results of the analysis and processing, and formulating an adjustment strategy based on the results of the feasibility analysis; S3 brightness adjustment, in response to the adjustment strategy, and based on the target solar lamp system output warning signal; S4. Feedback evaluation: evaluate the adjusted target solar lamp system, confirm the satisfaction evaluation coefficient corresponding to the target solar lamp system, and perform control adjustment based on the satisfaction evaluation coefficient.

[0021] Further, the energy information corresponding to the target solar panel includes energy output data and energy storage data corresponding to the target solar panel; The environmental information corresponding to the target solar panel includes light intensity data and temperature data corresponding to the environment in which the target solar panel is located; The basic information corresponding to the target solar lamp system includes brightness data and energy efficiency data corresponding to the lamps in the target solar lamp system.

[0022] It should be noted that the energy information, environmental information corresponding to the target solar panel and the basic information corresponding to the target solar lamp system are analyzed and processed, specifically including: Obtain the basic information corresponding to the target solar light system, and extract the preset maximum brightness corresponding to the lamps in the target solar light system and preset minimum brightness And confirm the first brightness requirement of the lamps in the target solar lamp system through dichotomy ; Specifically, the preset maximum brightness and the preset minimum brightness corresponding to the lamps in the target solar lamp system are respectively expressed as the theoretical maximum brightness corresponding to the lamps in the target solar lamp system and theoretical minimum brightness , then by the formula , confirm the first brightness requirement of the lamps in the target solar lamp system ; By formula , confirm the required power of the lamps in the target solar lamp system , and within the preset time interval, the formula , confirm the required energy evaluation coefficient corresponding to the required electric power of the lamps in the target solar lamp system ,in, Represented as the energy efficiency data corresponding to the lamps in the target solar lamp system, Expressed as the correction coefficient corresponding to the required electric power, Expressed as a preset time interval; Obtain energy information and environmental information corresponding to the target solar panel, and extract energy output data corresponding to the target solar panel from the energy information corresponding to the target solar panel and energy storage data , and confirm the environmental adjustment coefficient corresponding to the target solar panel from the environmental information corresponding to the target solar panel ; By formula , confirm the available energy evaluation coefficient corresponding to the target solar panel ,in, Expressed as the preset average energy output data, Expressed as a preset correction factor.

[0023] Furthermore, a feasibility analysis is conducted on the target solar lamp system based on the results of the analysis and processing, and an adjustment strategy is formulated based on the results of the feasibility analysis. Specifically, it includes: Obtain the energy demand evaluation coefficient corresponding to the required electrical power of the lamps in the target solar lamp system Available energy evaluation coefficient corresponding to the target solar panel , and perform difference calculation to confirm the energy assessment coefficient difference , and the energy evaluation coefficient difference The difference between the preset value and the Make a comparison; If the energy evaluation coefficient difference In When , it is determined that the first brightness requirement corresponding to the lamp in the target solar lamp system is feasible, and there is no need to formulate an adjustment strategy; If the energy evaluation coefficient difference Lower than When , then through the dichotomy in Identify the second upward brightness requirement of the lamps in the target solar lamp system , and the second upward brightness requirement of the lamps in the target solar lamp system Performing analysis to determine whether the second upward brightness requirement is feasible; If the energy evaluation coefficient difference Higher than When , then through the dichotomy in Identify the second downward brightness requirement of the lamps in the target solar lamp system , and the second downward brightness requirement corresponding to the lamps in the target solar lamp system An analysis is performed to determine whether the second downward brightness requirement is feasible.

[0024] Specifically, the second upward brightness requirement of the lamps in the target solar lamp system Set to The median value of the second upward brightness requirement of the lamp in the target solar lamp system Substitute into the formula to determine the required electrical power corresponding to the lamps in the target solar lamp system , and repeat the above steps until the optimal brightness requirement that meets feasibility is confirmed; similarly, the second downward brightness requirement corresponding to the lamp in the target solar lamp system Set to The median value of the second downward brightness requirement of the lamp in the target solar lamp system Substitute into the formula to determine the required electrical power corresponding to the lamps in the target solar lamp system , and repeat the above steps until the optimal brightness requirement that meets feasibility is confirmed.

[0025] For example, if the preset maximum brightness of the lamp in the target solar lamp system is and preset minimum brightness If the values ​​are 0 and 10 respectively, the first brightness requirement of the lamps in the target solar lamp system is confirmed is 5, and then the first brightness requirement is confirmed The required energy evaluation coefficient and available energy evaluation coefficient corresponding to 5, and the first brightness requirement is confirmed The difference between the required energy assessment coefficient and the available energy assessment coefficient when the value is 5. If the above difference is lower than When further Identify the second upward brightness requirement of the lamps in the target solar lamp system , and the second upward brightness requirement The second upward brightness requirement is 7.5. When the value is 7.5, the corresponding difference between the required energy assessment coefficient and the available energy assessment coefficient is calculated, and so on, until the difference between the required energy assessment coefficient and the available energy assessment coefficient is , then the difference between the required energy assessment coefficient and the available energy assessment coefficient is determined to be The corresponding brightness requirement is feasible, and the brightness requirement is set as the optimal brightness requirement.

[0026] Through the above technical scheme, by collecting and analyzing the energy information, environmental information and basic information of the target solar light system corresponding to the target solar panel, the required energy assessment coefficient corresponding to the required electric power of the lamp in the target solar light system and the available energy assessment coefficient corresponding to the target solar panel are confirmed, and the energy assessment coefficient difference is further confirmed, and the energy assessment coefficient difference is compared with the preset difference interval, and the optimal brightness requirement is confirmed according to the dichotomy method, thereby effectively reducing energy waste and battery over-discharge, thereby effectively improving the battery life.

[0027] It should be noted that the environmental adjustment coefficient corresponding to the target solar panel is determined from the environmental information corresponding to the target solar panel, specifically including: Select a time window and obtain the environmental information corresponding to the target solar panel, and extract the light intensity data corresponding to each time node in the environment where the target solar panel is located. and temperature data ,in, It is represented by the number corresponding to each time node. ; Extract the light intensity data and temperature data corresponding to the target solar panel under the test condition from the cloud database, and mark the light intensity data and the temperature data as the standard light intensity data corresponding to the target solar panel and standard temperature data ; By formula , confirm the environmental adjustment factor corresponding to the target solar panel ,in, Expressed as the temperature coefficient corresponding to the preset target solar panel, It is expressed as the total number of time nodes. They are respectively represented as preset weight coefficients.

[0028] Furthermore, the adjusted target solar light system is evaluated, including: In the selected time period, the trouble-free operation time data corresponding to the target solar lamp system is collected from the operation record of the target solar lamp system, and the user feedback data corresponding to the target solar lamp system is confirmed through a preset user interaction platform.

[0029] It should be noted that determining the satisfaction evaluation coefficient corresponding to the target solar lamp system and performing control adjustment based on the satisfaction evaluation coefficient specifically includes: By formula , confirm the satisfaction evaluation coefficient corresponding to the target solar lamp system ,in, Represented as the total operating time data corresponding to the target solar light system, Represented as the preset reference feedback threshold, It is represented as a preset weight coefficient, and e is represented as a natural constant; The satisfaction evaluation coefficient corresponding to the target solar lamp system The preset satisfaction evaluation threshold interval Make a comparison; If the satisfaction evaluation coefficient of the target solar lamp system When the target solar lamp system is low, the target solar lamp system needs to be maintained; that is, the satisfaction evaluation coefficient corresponding to the target solar lamp system is too low, and the target solar lamp system needs to be maintained or repaired; If the satisfaction evaluation coefficient of the target solar lamp system In When the target solar lamp system is between , the target solar lamp system needs to be adjusted; that is, the brightness of the lamps of the target solar lamp system is adjusted according to the user feedback data, and the adjustment method includes increasing the brightness or decreasing the brightness; If the satisfaction evaluation coefficient of the target solar lamp system , then there is no need to adjust the target solar lamp system.

[0030] Example 2 The embodiment of the present application also discloses a solar lamp system control system with sustainable lighting based on dichotomy.

[0031] Reference Figure 2 , a solar lamp system control system with sustainable lighting based on dichotomy, comprising: An information collection module is used to collect energy information and environmental information corresponding to the target solar panel through a preset collection device, and obtain basic information corresponding to the target solar lamp system; An information analysis module is used to analyze and process the energy information and environmental information corresponding to the target solar panel and the basic information corresponding to the target solar light system, and to perform a feasibility analysis on the target solar light system according to the results of the analysis and processing, and to formulate an adjustment strategy according to the results of the feasibility analysis; A brightness adjustment module, used to respond to the adjustment strategy and output a warning signal based on the target solar lamp system; The feedback evaluation module is used to evaluate the adjusted target solar lamp system, determine the satisfaction evaluation coefficient corresponding to the target solar lamp system, and perform control adjustment based on the satisfaction evaluation coefficient.

[0032] The above contents are merely examples and explanations of the concept of the present invention. The technicians in this technical field may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the concept of the invention or exceed the scope defined by the claims, they should all fall within the protection scope of the present invention.

[0033] In the description of this specification, the description with reference to the terms "one embodiment", "example", "specific example", etc. means that the specific features, structures, materials or characteristics described in conjunction with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic representation of the above terms does not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any one or more embodiments or examples in a suitable manner.

[0034] The preferred embodiments of the present invention disclosed above are only used to help explain the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to only specific implementation methods. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. A method for controlling a solar lamp system with sustainable lighting based on dichotomy, characterized in that: The following steps are involved: Information collection: collecting energy information and environmental information corresponding to the target solar panel through a preset collection device, and obtaining basic information corresponding to the target solar lamp system; Information analysis: analyzing and processing the energy information, environmental information and basic information of the target solar panel and the target solar light system, and conducting a feasibility analysis on the target solar light system based on the results of the analysis and processing, and formulating an adjustment strategy based on the results of the feasibility analysis; brightness adjustment, in response to the adjustment strategy, and outputting a warning signal based on the target solar light system; Feedback evaluation is performed to evaluate the adjusted target solar lamp system, and to determine the satisfaction evaluation coefficient corresponding to the target solar lamp system, and to perform control adjustment based on the satisfaction evaluation coefficient.

2. A method for controlling a solar lamp system with sustainable lighting based on dichotomy according to claim 1, characterized in that: The energy information corresponding to the target solar cell panel includes energy output data and energy storage data corresponding to the target solar cell panel; The environmental information corresponding to the target solar panel includes light intensity data and temperature data corresponding to the environment where the target solar panel is located; The basic information corresponding to the target solar lamp system includes brightness data and energy efficiency data corresponding to the lamps in the target solar lamp system.

3. A method for controlling a solar lamp system with sustainable lighting based on dichotomy according to claim 2, characterized in that: The energy information, environmental information corresponding to the target solar panel and the basic information corresponding to the target solar lamp system are analyzed and processed, including: Obtain the basic information corresponding to the target solar light system, and extract the preset maximum brightness corresponding to the lamps in the target solar light system and preset minimum brightness And confirm the first brightness requirement of the lamps in the target solar lamp system through dichotomy ; By formula , confirm the required power of the lamps in the target solar lamp system , and within the preset time interval, the formula , confirm the required energy evaluation coefficient corresponding to the required electric power of the lamps in the target solar lamp system ,in, Represented as the energy efficiency data corresponding to the lamps in the target solar lamp system, Expressed as the correction coefficient corresponding to the required electric power, Expressed as a preset time interval; Obtain energy information and environmental information corresponding to the target solar panel, and extract energy output data corresponding to the target solar panel from the energy information corresponding to the target solar panel and energy storage data , and confirm the environmental adjustment coefficient corresponding to the target solar panel from the environmental information corresponding to the target solar panel ; By formula , confirm the available energy evaluation coefficient corresponding to the target solar panel ,in, Expressed as the preset average energy output data, Expressed as a preset correction factor.

4. A method for controlling a solar lamp system with sustainable lighting based on dichotomy according to claim 3, characterized in that: According to the results of the analysis and processing, the feasibility analysis of the target solar lamp system is carried out, and the adjustment strategy is formulated according to the results of the feasibility analysis. Specifically, it includes: Obtain the energy demand evaluation coefficient corresponding to the required electrical power of the lamps in the target solar lamp system Available energy evaluation coefficient corresponding to the target solar panel , and perform difference calculation to confirm the energy assessment coefficient difference , and the energy evaluation coefficient difference The difference between the preset value and the Make a comparison; If the energy evaluation coefficient difference In When , it is determined that the first brightness requirement corresponding to the lamp in the target solar lamp system is feasible, and there is no need to formulate an adjustment strategy; If the energy evaluation coefficient difference Lower than When , then through the dichotomy in Identify the second upward brightness requirement of the lamps in the target solar lamp system , and the second upward brightness requirement of the lamps in the target solar lamp system Performing analysis to determine whether the second upward brightness requirement is feasible; If the energy evaluation coefficient difference Higher than When , then through the dichotomy in Identify the second downward brightness requirement of the lamps in the target solar lamp system , and the second downward brightness requirement corresponding to the lamps in the target solar lamp system An analysis is performed to determine whether the second downward brightness requirement is feasible.

5. The method for controlling a solar lamp system with sustainable lighting based on dichotomy according to claim 3 is characterized in that: The environmental adjustment coefficient corresponding to the target solar panel is determined from the environmental information corresponding to the target solar panel, specifically including: Select a time window and obtain the environmental information corresponding to the target solar panel, and extract the light intensity data corresponding to each time node in the environment where the target solar panel is located. and temperature data ,in, It is represented by the number corresponding to each time node. ; Extract the light intensity data and temperature data corresponding to the target solar panel under the test condition from the cloud database, and mark the light intensity data and the temperature data as the standard light intensity data corresponding to the target solar panel and standard temperature data ; By formula , confirm the environmental adjustment factor corresponding to the target solar panel ,in, Expressed as the temperature coefficient corresponding to the preset target solar panel, It is expressed as the total number of time nodes. They are respectively represented as preset weight coefficients.

6. A method for controlling a solar lamp system with sustainable lighting based on dichotomy according to claim 1, characterized in that: Evaluate the adjusted target solar light system, including: In the selected time period, the trouble-free operation time data corresponding to the target solar lamp system is collected from the operation record of the target solar lamp system, and the user feedback data corresponding to the target solar lamp system is confirmed through a preset user interaction platform.

7. A method for controlling a solar lamp system with sustainable lighting based on dichotomy according to claim 6, characterized in that: Determining the satisfaction evaluation coefficient corresponding to the target solar lamp system and performing control adjustment based on the satisfaction evaluation coefficient, specifically including: By formula , confirm the satisfaction evaluation coefficient corresponding to the target solar lamp system ,in, Represented as the total operating time data corresponding to the target solar light system, Represented as the preset reference feedback threshold, It is represented as a preset weight coefficient, and e is represented as a natural constant; The satisfaction evaluation coefficient corresponding to the target solar lamp system The preset satisfaction evaluation threshold interval Make a comparison; If the satisfaction evaluation coefficient of the target solar lamp system When the target solar lamp system needs to be maintained; If the satisfaction evaluation coefficient of the target solar lamp system In When the target solar lamp system is adjusted, If the satisfaction evaluation coefficient of the target solar lamp system , then there is no need to adjust the target solar lamp system.

8. A solar lamp system control system based on dichotomy for sustainable lighting, applied to a solar lamp system control method based on dichotomy for sustainable lighting as described in any one of claims 1 to 7, characterized in that: include: An information collection module is used to collect energy information and environmental information corresponding to the target solar panel through a preset collection device, and obtain basic information corresponding to the target solar lamp system; An information analysis module is used to analyze and process the energy information and environmental information corresponding to the target solar panel and the basic information corresponding to the target solar light system, and to perform a feasibility analysis on the target solar light system according to the results of the analysis and processing, and to formulate an adjustment strategy according to the results of the feasibility analysis; A brightness adjustment module, used to respond to the adjustment strategy and output a warning signal based on the target solar lamp system; The feedback evaluation module is used to evaluate the adjusted target solar lamp system, determine the satisfaction evaluation coefficient corresponding to the target solar lamp system, and perform control adjustment based on the satisfaction evaluation coefficient.

9. A computer-readable storage medium, characterized in that: Instructions are stored, and when the instructions are run on a computer, the computer is caused to execute a control method for a solar lamp system with sustainable lighting based on dichotomy as claimed in any one of claims 1 to 7.

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