Solar lamp control system and method

Abstract

The invention relates to a solar lamp control system and method, and relates to the field of solar lamp technology, and the system comprises a detection module which is used for obtaining the use parameters of a solar lamp, and transmitting the use parameters to a control module; the control module is in wireless communication connection with the detection module, and the control module is used for receiving and processing the use parameters to generate a control instruction and sending the control instruction to the solar lamp; the number of the solar lamps is multiple, the solar lamps are in wireless communication connection with the control module, and the solar lamps receive the control instruction and respond to the control instruction to achieve illumination; the detection module collects use parameters and sends the use parameters to the control module, the control module processes the use parameters after receiving the use parameters to generate a control instruction and sends the control instruction to the solar lamp, and the solar lamp receives and responds to the control instruction to achieve illumination. The illumination lamp control system has the effect of reducing the cost of the illumination lamp control system.

Description

Technical Field

[0001] The present application relates to the field of solar lamp technology, and in particular to a solar lamp control system and method. Background Art

[0002] With the consumption of traditional energy resources, new energy sources have been widely used, especially solar energy, which has attracted more and more attention due to its low energy consumption and pollution-free characteristics. With the rapid decline in the cost of solar panels and lithium batteries, the current use of solar energy has a trend of extending from industrial and commercial power generation to single equipment, devices, and product applications.

[0003] In the related art, the landscape lighting control system includes a main controller, a sub-controller, a power supply and a number of landscape lighting lamps. The sub-controller is connected via a signal line to control the opening and closing of a whole row of landscape lighting lamps, and the main controller and the sub-controller are connected via a signal line to control the sub-controller. The power supply and the landscape lighting lamps are connected hand-in-hand via wires to supply power to the landscape lighting lamps.

[0004] Regarding the above-mentioned related technologies, the laying, connection and related protective measures of electrical wires and signal lines require a lot of manpower, material and financial resources, and the system relies on traditional energy, which also requires higher costs, resulting in high costs for lighting control systems. There is still room for improvement. Summary of the invention

[0005] In order to reduce the cost of a lighting control system, the present application provides a solar lamp control system and method.

[0006] In the first aspect, the present application provides a solar lamp control system, which adopts the following technical solution: A solar lamp control system, comprising: The detection module is used to obtain the usage parameters of the solar lamp and send the usage parameters to the control module; A control module, the control module is wirelessly connected to the detection module, the control module is used to receive and process the usage parameters to generate control instructions, and send the control instructions to the solar lamp; A solar lamp, wherein a plurality of solar lamps are provided, the solar lamps are wirelessly connected to a control module, and the solar lamps receive and respond to control instructions to realize lighting; The detection module collects usage parameters and sends the usage parameters to the control module. After receiving the usage parameters, the control module processes the usage parameters to generate control instructions and sends them to the solar lamp. The solar lamp receives and responds to the control instructions to achieve lighting.

[0007] By adopting the above technical solution, the detection module, the control module and the solar lamp are connected through wireless communication, so there is no need to lay and connect wires and signal lines and take related protective measures, thereby saving a lot of manpower, material and financial resources, and using solar energy as the energy source for landscape lighting without relying on traditional energy, thereby reducing the cost of the lighting control system.

[0008] Optionally, the control module includes: A receiving unit, used for acquiring lighting style parameters, and sending the lighting style parameters to the direct processing unit and the calculation processing unit; A weather monitoring unit, used to obtain weather parameters and send the weather parameters to a weather judgment unit; A weather judgment unit, the weather judgment unit receives and judges whether the weather parameters meet the requirements of the preset non-energy supplement parameters to send a calculation use signal to the calculation processing unit or send a direct use signal to the direct processing unit; A computing processing unit, the computing processing unit receiving and responding to the computing usage signal to generate a control instruction after analyzing the usage parameter and the lighting pattern parameter; A direct processing unit for associating lighting pattern parameters and directly using the signals to generate control instructions.

[0009] By adopting the above technical scheme, when the weather judgment unit determines that the weather parameters do not meet the requirements of the no-energy replenishment parameters, it means that the weather is clear and the solar lamp can be replenished with energy in time, so the lighting style parameters are associated and the control instructions are generated directly using the signal; when the requirements of the no-energy replenishment parameters are not met, it means that the weather is gloomy and the solar lamp cannot be replenished with energy, so the control instructions are generated after analyzing the usage parameters and lighting style parameters, thereby improving the rationality of generating the control instructions.

[0010] Optionally, the control module further includes: A parameter determination unit, the parameter determination unit receives and determines whether the usage parameter meets the preset sufficient parameter requirement to send a calculation signal to the calculation processing unit or send a direct usage signal to the direct processing unit; The computing processing unit receives and responds to the computing signal to generate a control instruction after analyzing the usage parameters and the lighting pattern parameters; The direct processing unit associates the lighting pattern parameters with the direct usage signal to generate a control instruction.

[0011] By adopting the above technical solution, when the parameter judgment unit determines that the usage parameters meet the requirements of sufficient parameters, it means that the energy of the solar lamp is sufficient, so the lighting style parameters are associated and the control instructions are directly used to generate the control instructions; when the requirements of sufficient parameters are not met, it means that the energy of the solar lamp is insufficient, so it is necessary to determine the control instructions after analysis, so as to ensure that the solar lamp can maintain lighting for a longer time when the energy is insufficient.

[0012] Optionally, the computing processing unit includes: A serial number calculation component, which analyzes the lighting pattern parameters and the preset solar lamp serial number to determine the batch start serial number and sends it to the associated component; A time calculation component, which analyzes the usage parameters and the preset consumption parameters to determine the batch usage time and sends it to the associated components; An associating component receives and associates the batch start sequence number and the batch use time to generate a control instruction.

[0013] By adopting the above technical solution, the solar lamp serial numbers are divided into batches according to the lighting style parameters, and the batch start serial numbers are determined. The batch usage time is then calculated according to the usage parameters and consumption parameters. Then, the corresponding solar lamps are started in sequence according to the batch start serial numbers, so that their working time is kept within the batch usage time, thereby meeting the lighting style requirements while satisfying the lighting for as long as possible.

[0014] In a second aspect, the present application provides a solar lamp control method, which adopts the following technical solution: A solar lamp control method, comprising: Get the usage parameters of the solar lamp; Analyze usage parameters to determine control instructions; The solar lamp is controlled to illuminate according to the control instructions.

[0015] By adopting the above technical solution, the control instructions for the solar lamp are determined after analyzing the usage parameters, so that the solar lamp is controlled to illuminate with the control instructions, so that the solar lamp can maintain long-term illumination in different environments, thereby improving the convenience of using the solar lamp.

[0016] Optionally, the step of analyzing the usage parameters to determine the control instruction includes: Get the lighting style parameters and weather parameters of the solar lamp; Determine whether the weather parameters meet the preset no energy replenishment parameters; If not, then associating the lighting style parameters with the preset direct use signal to generate a control instruction; If so, the usage parameters and lighting style parameters are analyzed to determine the control instructions.

[0017] By adopting the above technical scheme, when the weather parameters do not meet the requirements of the parameters without energy replenishment, it means that the weather is clear and the solar lamp can be replenished with energy in time, so the lighting style parameters are associated and the control instructions are generated directly using the signal; when the requirements of the parameters without energy replenishment are not met, it means that the weather is gloomy and the solar lamp cannot be replenished with energy, so the control instructions are generated after analyzing the usage parameters and lighting style parameters, thereby improving the rationality of generating the control instructions.

[0018] Optionally, the step of analyzing the usage parameters and the lighting style parameters to determine the control instructions includes: Determine whether the usage parameters meet the preset sufficient parameter requirements; If it is met, the lighting pattern parameters and the preset direct use signal are associated to generate a control instruction; If not, the control instructions are determined according to the preset batch lighting method.

[0019] By adopting the above technical solution, when the usage parameters meet the requirements of sufficient parameters, it indicates that the energy of the solar lamp is sufficient, so the lighting style parameters are associated and the control instructions are directly used to generate signals; when the requirements of sufficient parameters are not met, it indicates that the energy of the solar lamp is insufficient, so it is necessary to determine the control instructions after analysis, thereby ensuring that the solar lamp can maintain lighting for a longer time when the energy is insufficient.

[0020] Optionally, the step of determining the control instruction according to the preset batch lighting method includes: Analyze lighting pattern parameters and preset solar lamp serial numbers to determine batch start serial numbers; Analyze usage parameters and preset consumption parameters to determine batch usage time; The batch start sequence number and batch usage time are associated to generate control instructions.

[0021] By adopting the above technical solution, the solar lamp serial numbers are divided into batches according to the lighting style parameters, and the batch start serial numbers are determined. The batch usage time is then calculated according to the usage parameters and consumption parameters. Then, the corresponding solar lamps are started in sequence according to the batch start serial numbers, so that their working time is kept within the batch usage time, thereby meeting the lighting style requirements while satisfying the lighting for as long as possible.

[0022] Optionally, a self-cleaning step is also included, and the specific steps include: Obtain the self-cleaning trigger signal of the preset solar panel; The preset self-cleaning device is controlled according to the self-cleaning trigger signal to clean the solar panel.

[0023] By adopting the above technical solution, when the self-cleaning trigger signal of the solar panel is detected, the self-cleaning device is controlled to clean the solar panel, thereby maintaining the solar panel in good working condition, maintaining long-term high-efficiency solar energy conversion efficiency, and reducing the cost of manual maintenance.

[0024] In summary, the present application includes at least one of the following beneficial technical effects: 1. Through wireless communication between the detection module, control module and solar lamp, there is no need to lay and connect wires and signal lines and take related protective measures, thus saving a lot of manpower, material and financial resources, and using solar energy as the energy source of landscape lighting instead of relying on traditional energy, thereby reducing the cost of lighting control system; 2. When the usage parameters meet the requirements of sufficient parameters, it indicates that the solar lamp has sufficient energy, so the lighting style parameters are associated and the control instructions are directly used to generate signals; when the parameters do not meet the requirements of sufficient parameters, it indicates that the solar lamp has insufficient energy, so the control instructions need to be determined after analysis, so as to ensure that the solar lamp can maintain lighting for a longer time when the energy is insufficient; 3. When the self-cleaning trigger signal of the solar panel is detected, the self-cleaning device is controlled to clean the solar panel, thereby maintaining the solar panel in good working condition, maintaining long-term high-efficiency solar energy conversion efficiency, and reducing the cost of manual maintenance. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a system block diagram of a solar lamp control system in an embodiment of the present application.

[0026] Figure 2 It is a system block diagram of the control module in the embodiment of the present application.

[0027] Figure 3 This is a solar lamp control method in an embodiment of the present application.

[0028] Figure 4 It is a flowchart of the steps of analyzing the usage parameters to determine the control instructions in the embodiment of the present application.

[0029] Figure 5 It is a flowchart of the steps of analyzing usage parameters and lighting style parameters to determine control instructions in an embodiment of the present application.

[0030] Figure 6 It is a flow chart of the steps of determining control instructions according to a preset batch lighting method in an embodiment of the present application.

[0031] Figure 7 It is a flow chart of the self-cleaning steps in the embodiment of the present application. DETAILED DESCRIPTION

[0032] In order to make the purpose, technical solutions and advantages of this application more clear, the following Figure 1-Figure 7 It should be understood that the specific embodiments described herein are only used to explain the present application and are not used to limit the present application.

[0033] Reference Figure 1 The embodiment of the present application discloses a solar lamp control system, including a solar lamp, a detection module and a control module. There are several solar lamps, which are evenly and neatly arranged and installed on the landscape wall to provide landscape lighting. The solar lamp includes a lamp, a shell, a solar panel, a battery and a controller. The lamp and the solar panel are respectively installed on the outside of the shell, while the battery and the controller are installed inside the shell. The solar panel is connected to the controller through a cable to convert the solar tube into direct current and supply it to the controller. The controller and the battery are also connected through a cable to adjust the direct current provided by the solar panel to charge the battery. The battery can be a lithium battery, and the lamp is connected to the controller through wires. The controller controls the opening and closing of the power supply circuit so that the battery provides electrical energy for lighting for the lamp. The use of solar power supply technology not only reduces the cost of energy consumption, but also fully reflects the pursuit of environmental friendliness and sustainable development.

[0034] Reference Figure 1 The detection module is used to detect the power level of the battery in the solar lamp, that is, the usage parameters of the solar lamp, and send the usage parameters to the control module. After receiving the usage parameters, the control module analyzes the usage parameters to generate control instructions, and then feeds the control instructions back to the solar lamp. The solar lamp realizes lighting according to the control instructions.

[0035] The detection module is actually the battery management system of the controller in the solar lamp, and the control module is actually the main controller. The control module is connected to the controller in the solar lamp through wireless communication, and is indirectly connected to the detection module through wireless communication. In the embodiment of the present application, LoRa spread spectrum technology can be used to realize the wireless communication connection between the control module and the controller in the solar lamp, for example, using 433MHz frequency band or 2.4GHz frequency band, and the specific frequency band selection is selected according to the control distance of the solar lamp. The communication connection between the control module and the solar lamp through wireless communication technology can effectively coordinate the work of each solar lamp, so that the solar lamp maintains a high degree of consistency and coordination, without the need to pull wires from the controller as in the past, and get rid of the constraints of hand-in-hand connection in the traditional connection method, effectively avoiding the cumbersomeness and potential problems caused by line laying, and further improving the reliability and stability of the solar lamp.

[0036] Reference Figure 2The control module includes a receiving unit, a weather monitoring unit, a weather judgment unit, a computing unit, a direct processing unit and a parameter judgment unit. The receiving unit is used to receive personnel's instructions on the solar lamp landscape lighting style, that is, the lighting style parameters, which are obtained by personnel selecting on the visual interface of the control module, such as the starry sky twinkling effect or the scroll picture display. The weather monitoring unit is used to monitor the weather parameters in real time and send the weather parameters to the weather judgment unit, that is, the weather is cloudy or sunny, and the weather parameters can be obtained by logging into the meteorological website. After receiving the weather parameters, the weather judgment unit determines whether the weather parameters meet the requirements of the no-energy replenishment parameters, that is, whether the weather can replenish electric energy for the solar lamp. If the weather parameters do not meet the requirements of the no-energy replenishment parameters, it means that the weather is clear and can replenish electric energy for the solar lamp. Therefore, when the solar lamp needs to be used, the power must be sufficient. Therefore, the weather judgment unit sends a direct use signal to the direct processing unit. The direct processing unit associates the lighting style parameters and the direct use signal to generate a control instruction, and then sends the control instruction to the solar lamp. The solar lamp directly controls the corresponding solar lamp to illuminate according to the direct use signal and lighting style parameters in the control instruction, thereby showing the landscape lighting required by the personnel; if the weather parameters meet the requirements of the no-energy replenishment parameters, it means that the weather is gloomy and cannot replenish electric energy for the solar panel. When the solar lamp is used, it is necessary to analyze and calculate the use parameters before determining the control instruction. Therefore, the weather judgment unit sends a calculation use signal to the calculation processing unit.

[0037] Reference Figure 2 After the detection module sends the usage parameters to the control module, when it is determined that the calculation processing unit receives the calculation usage signal, the control parameter judgment unit receives the usage parameters and then associates them with the lighting style parameters to analyze and determine the control instructions. After receiving the usage parameters, the parameter judgment unit determines whether the usage parameters meet the requirements of sufficient parameters, that is, whether the power of the solar lamp can support the long-term lighting of the solar lamp. If the usage parameters meet the requirements of sufficient parameters, it means that the power of the solar lamp is sufficient. Therefore, the parameter judgment unit sends a direct usage signal to the direct processing unit. The direct processing unit associates the lighting style parameters and the direct usage signal to generate a control instruction, and then sends the control instruction to the solar lamp. The solar lamp directly controls the corresponding solar lamp to illuminate according to the direct usage signal and the lighting style parameters in the control instruction, thereby showing the landscape lighting required by the personnel. The usage parameters also need to be detected during the lighting process. When it is determined that the usage parameters reach the reserved power, the solar lamp is controlled to turn off, so as to provide support for the subsequent urgent lighting; if the usage parameters do not meet the requirements of sufficient parameters, it means that the power of the solar lamp is insufficient to support the long-term lighting of the solar lamp. Therefore, the parameter judgment unit sends a calculation signal to the calculation processing unit. The calculation processing unit analyzes the usage parameters and the lighting style parameters in response to the calculation signal and determines the control instruction.

[0038] Reference Figure 2 The calculation processing unit includes a sequence number calculation component, a time calculation component and an association component. The sequence number calculation component receives the lighting style parameters, generates batch start sequence numbers for the solar lamp sequence numbers in batches, so that the batched solar lamps display the pictures corresponding to the lighting style parameters. For example, the pictures of the flowing light style can be divided into four batches in each column of solar lamps, so that each batch of solar lamps can be controlled one by one, and the lighting time is four times the original lighting time. The time calculation component receives the usage parameters, calculates the quotient of the usage parameters and the consumption parameters to obtain the usage time of the solar lamp, that is, the batch usage time, and sends it to the association component to provide data support. After the association component receives the batch start sequence number and the batch usage time, it associates the two to generate a control instruction and sends it to the solar lamp. After receiving the control instruction, the solar lamp controls the corresponding batch of solar lamps to illuminate according to the batch start sequence number in the control instruction, and performs timing. After the time reaches the batch usage time, the next batch of solar lamps is controlled to continue lighting, while meeting the landscape lighting effect, ensuring that the solar lamps are illuminated for a longer time.

[0039] Based on the same inventive concept, Figure 3 The present invention provides a solar lamp control method, comprising the following steps: Step S100: Obtaining usage parameters of the solar lamp.

[0040] The usage parameter refers to the remaining power of the solar lamp, which is detected by the detection module in the solar lamp, namely the battery management system, and sent by the controller to the control module.

[0041] Step S101: Analyze the usage parameters to determine the control instructions.

[0042] After receiving the usage parameters, the control module analyzes the usage parameters and determines the control instructions. For specific methods, refer to Figure 4 The control instructions are sent to the controller of the solar lamp to provide data support for the subsequent control of the solar lamp to achieve landscape lighting.

[0043] Step S102: Control the solar lamp to illuminate according to the control instruction.

[0044] Among them, after the controller in the solar lamp receives the control instruction, it illuminates according to the lighting style corresponding to the control instruction. Under the control of the control instruction, multiple solar lamps are combined to form the desired landscape effect.

[0045] Reference Figure 4 , the steps of analyzing the usage parameters to determine the control instructions include: Step S200: Acquire lighting style parameters and weather parameters of the solar lamp.

[0046] Among them, the lighting style parameters refer to the landscape lighting effects formed by the required solar lights, such as the starry sky twinkling effect or the picture scroll display effect, etc. The specific type is stored in the control module by the operator and selected by the operator on the visual interface of the control module.

[0047] Weather parameters refer to the weather conditions in the area where the solar lamp is located. The control module logs into the meteorological website to identify and call the meteorological parameters of the area where the solar lamp is located, including cloudy weather and clear weather.

[0048] Step S201: Determine whether the weather parameters meet the preset requirements of the non-energy replenishment parameters.

[0049] The no energy replenishment parameter refers to a weather parameter that cannot replenish energy for the solar lamp, that is, gloomy weather, and the no energy replenishment parameter requirement refers to the weather conditions corresponding to the no energy replenishment parameter.

[0050] The control module determines whether the weather conditions corresponding to the weather parameters are consistent with the weather conditions corresponding to the no energy replenishment parameters, thereby determining whether the solar lamp has enough energy for replenishment.

[0051] Step S2011: If not, then associate the lighting style parameters with the preset direct use signal to generate a control instruction.

[0052] Among them, if the control module determines that the weather conditions corresponding to the weather parameters are inconsistent with the weather conditions corresponding to the no energy replenishment parameters, it means that the weather is clear and the solar lamp can be replenished with energy. When the solar lamp needs to be turned on, the power of the solar lamp must be sufficient. Therefore, the lighting style parameters are directly associated and the signal is directly used to generate control instructions.

[0053] The direct use signal refers to the signal for controlling the normal lighting of the solar lamp corresponding to the lighting pattern parameter, which is stored in the control module by the operator. The control instruction in this step is consistent with the control instruction in step S101, and the control module stores the lighting pattern parameter and the direct use signal in the same data packet.

[0054] Step S2012: If it meets the requirements, the usage parameters and lighting style parameters are analyzed to determine the control instructions.

[0055] If the control module determines that the weather conditions corresponding to the weather parameters are consistent with the weather conditions corresponding to the no energy replenishment parameters, it means that the weather is gloomy and the solar lamp cannot be replenished with energy. Therefore, it is necessary to analyze the use parameters and lighting style parameters to determine the control instructions. For specific methods, refer to Figure 5steps to ensure that the solar lights can provide longer lighting time while showing the landscape lighting effect.

[0056] Reference Figure 5 , the steps of analyzing the usage parameters and lighting style parameters to determine the control instructions include: Step S300: Determine whether the usage parameters meet the preset sufficient parameter requirements.

[0057] Among them, the sufficient parameter refers to the amount of electricity that is sufficient for the solar lamp to use. The specific value is determined by the operator based on the actual situation. The requirement for the sufficient parameter refers to the amount of electricity that is not less than that corresponding to the sufficient parameter.

[0058] The control module determines whether the power corresponding to the usage parameter is not less than the power corresponding to the sufficiency parameter, thereby determining whether there is enough power in the solar lamp to support the lighting of the solar lamp in gloomy weather.

[0059] Step S301: If it is in compliance, then the lighting pattern parameters and the preset direct use signal are associated to generate a control instruction.

[0060] Among them, if the control module determines that the power corresponding to the usage parameter is not less than the power corresponding to the sufficient parameter, it means that even if the weather is gloomy and the solar lamp cannot be replenished in time, there is still enough power left in the solar lamp. Therefore, the lighting style parameters and the direct use signal are associated to generate control instructions. In lighting when the weather is gloomy, it is still necessary to detect the usage parameters. When the usage parameters reach the reserved power, the solar lamp is controlled to be turned off until the operator directly sends a start signal and then relies on the reserved power for lighting or replenishes energy in clear weather and enters the state of timed opening and closing or automatic opening and closing according to photosensitivity detection.

[0061] The direct use signal and control instruction in this step are consistent with the direct use signal and control instruction in step S2011, and will not be repeated here.

[0062] Step S302: If not, determine the control instruction according to the preset batch lighting method.

[0063] If the control module determines that the power corresponding to the usage parameter is lower than the power corresponding to the sufficient parameter, it means that the power of the solar lamp cannot support the long-term lighting of the solar lamp. Therefore, the control instruction is determined according to the batch lighting method. The specific method is referred to Figure 6 The steps are followed to make the solar lights illuminate in batches, while ensuring the landscape lighting effect and extending the lighting time of the solar lights as much as possible.

[0064] The batch lighting method refers to a method of dividing solar lights into different batches for lighting to increase the lighting time while ensuring the landscape lighting effect, which is stored in the control module by the operator.

[0065] Reference Figure 6 The steps of determining the control instructions according to the preset batch lighting method include: Step S400: Analyze the lighting style parameters and the preset solar lamp serial number to determine the batch start serial number.

[0066] The solar lamp serial number refers to the serial number marked on all solar lamps, which is obtained by the operator setting the corresponding serial numbers in the control module and the solar lamp respectively.

[0067] The batch start-up sequence number refers to the sequence number of the solar lights started in batches. The control module identifies the start-up sequence number of the solar lights corresponding to the lighting style parameters. If the start-up sequence number includes all the sequence numbers, the sequence numbers are divided according to the minimum number of solar lights corresponding to the lighting style, thereby forming multiple batch sequence numbers; if the start-up sequence number only includes a part of the sequence numbers, all the sequence numbers are divided into multiple batch sequence numbers after being proportionally reduced in height or width.

[0068] Step S401: Analyze the usage parameters and preset consumption parameters to determine the batch usage time.

[0069] The consumption parameter refers to the rate at which each solar lamp consumes electricity. The specific value is determined by the operator based on the actual situation of the solar lamp.

[0070] Batch usage time refers to the lighting time of each batch of solar lamps, which is obtained by calculating the quotient of usage parameters and consumption parameters by the control module.

[0071] Step S402: Associating the batch start sequence number and the batch usage time to generate a control instruction.

[0072] The control instruction in this step is consistent with the control instruction in step S302, and the control module stores the batch start sequence number and the batch use time in the same data packet.

[0073] Reference Figure 7 , and also includes a self-cleaning step, the specific steps include: Step S500: obtaining a preset self-cleaning trigger signal of the solar panel.

[0074] The solar panel refers to a solar photovoltaic cell installed on the solar lamp housing to provide electricity for the solar lamp. The self-cleaning trigger signal refers to a signal for automatically cleaning the solar panel. In one embodiment, the operator stores the timing cleaning signal in the control module. After the control module reaches the time of the timing cleaning signal, the control module sends a command to the solar lamp. In another embodiment, the solar lamp pays attention to the power conversion efficiency. When the power conversion efficiency is lower than the threshold, it indicates that the solar panel is covered with dirt and impurities, so the self-cleaning trigger signal is activated to provide data support for subsequent cleaning.

[0075] Step S501: controlling a preset self-cleaning device to clean the solar panel according to a self-cleaning trigger signal.

[0076] Among them, after the self-cleaning device receives the self-cleaning trigger signal, the self-cleaning device responds to the self-cleaning trigger signal to clean the solar panel, remove the dirt and impurities on the surface of the solar panel, so that the solar panel always maintains a good working condition and long-term high-efficiency solar energy conversion efficiency, reducing the cost and frequency of manual maintenance.

[0077] The self-cleaning device refers to a device for self-cleaning the solar panel, including a screw structure and a brush rod. The screw structure is respectively installed on both sides of the solar panel. The brush rod is controlled by the screw structure to scrape and brush the surface of the solar panel, thereby removing dirt and impurities on the surface of the solar panel. The screw structure is controlled by a controller in the solar lamp.

[0078] Those skilled in the art can clearly understand that for the convenience and simplicity of description, only the division of the above-mentioned functional modules is used as an example. In actual applications, the above-mentioned functions can be assigned to different functional modules as needed, that is, the internal structure of the device is divided into different functional modules to complete all or part of the functions described above. The specific working process of the system, device and unit described above can refer to the corresponding process in the aforementioned method embodiment, and will not be repeated here.

[0079] An embodiment of the present application provides a computer-readable storage medium storing a computer program that can be loaded by a processor and executed by a solar lamp control method.

[0080] Computer storage media include, for example, various media that can store program codes, such as USB flash drives, mobile hard disks, read-only memories (ROM), random access memories (RAM), magnetic disks or optical disks.

[0081] Based on the same inventive concept, an embodiment of the present application provides an intelligent terminal, including a memory and a processor, wherein the memory stores a computer program that can be loaded by the processor and execute a solar lamp control method.

[0082] Those skilled in the art can clearly understand that for the convenience and simplicity of description, only the division of the above-mentioned functional modules is used as an example. In actual applications, the above-mentioned functions can be assigned to different functional modules as needed, that is, the internal structure of the device is divided into different functional modules to complete all or part of the functions described above. The specific working process of the system, device and unit described above can refer to the corresponding process in the aforementioned method embodiment, and will not be repeated here.

[0083] The above are all preferred embodiments of the present application, and are not intended to limit the protection scope of the present application. Any feature disclosed in this specification (including the abstract and drawings), unless otherwise stated, can be replaced by other equivalent or alternative features with similar purposes. That is, unless otherwise stated, each feature is only an example of a series of equivalent or similar features.

Claims

1. A solar lamp control system, characterized in that: include: The detection module is used to obtain the usage parameters of the solar lamp and send the usage parameters to the control module; A control module, the control module is wirelessly connected to the detection module, the control module is used to receive and process the usage parameters to generate control instructions, and send the control instructions to the solar lamp; A solar lamp, wherein a plurality of solar lamps are provided, the solar lamps are wirelessly connected to a control module, and the solar lamps receive and respond to control instructions to realize lighting; The detection module collects usage parameters and sends the usage parameters to the control module. After receiving the usage parameters, the control module processes the usage parameters to generate control instructions and sends them to the solar lamp. The solar lamp receives and responds to the control instructions to achieve lighting.

2. A solar lamp control system according to claim 1, characterized in that: The control module comprises: A receiving unit, used for acquiring lighting style parameters, and sending the lighting style parameters to the direct processing unit and the calculation processing unit; A weather monitoring unit, used to obtain weather parameters and send the weather parameters to a weather judgment unit; A weather judgment unit, the weather judgment unit receives and judges whether the weather parameters meet the requirements of the preset non-energy supplement parameters to send a calculation use signal to the calculation processing unit or send a direct use signal to the direct processing unit; A computing processing unit, the computing processing unit receiving and responding to the computing usage signal to generate a control instruction after analyzing the usage parameter and the lighting pattern parameter; A direct processing unit for associating lighting pattern parameters and directly using the signals to generate control instructions.

3. A solar lamp control system according to claim 2, characterized in that: The control module also includes: A parameter determination unit, the parameter determination unit receives and determines whether the usage parameter meets the preset sufficient parameter requirement to send a calculation signal to the calculation processing unit or send a direct usage signal to the direct processing unit; The computing processing unit receives and responds to the computing signal to generate a control instruction after analyzing the usage parameters and the lighting pattern parameters; The direct processing unit associates the lighting pattern parameters with the direct usage signal to generate a control instruction.

4. A solar lamp control system according to claim 3, characterized in that: The computing processing unit comprises: A serial number calculation component, which analyzes the lighting pattern parameters and the preset solar lamp serial number to determine the batch start serial number and sends it to the associated component; A time calculation component, which analyzes the usage parameters and the preset consumption parameters to determine the batch usage time and sends it to the associated components; An associating component receives and associates the batch start sequence number and the batch use time to generate a control instruction.

5. A solar lamp control method, applied to a solar lamp control system as claimed in any one of claims 1 to 4, characterized in that: include: Get the usage parameters of the solar lamp; Analyze usage parameters to determine control instructions; The solar lamp is controlled to illuminate according to the control instructions.

6. A solar lamp control method according to claim 5, characterized in that: The steps of analyzing the usage parameters to determine the control instructions include: Get the lighting style parameters and weather parameters of the solar lamp; Determine whether the weather parameters meet the preset no energy replenishment parameters; If not, then associating the lighting style parameters with the preset direct use signal to generate a control instruction; If so, the usage parameters and lighting style parameters are analyzed to determine the control instructions.

7. A solar lamp control method according to claim 6, characterized in that: The steps of analyzing the usage parameters and lighting style parameters to determine the control instructions include: Determine whether the usage parameters meet the preset sufficient parameter requirements; If it is met, the lighting pattern parameters and the preset direct use signal are associated to generate a control instruction; If not, the control instructions are determined according to the preset batch lighting method.

8. A solar lamp control method according to claim 7, characterized in that: The steps of determining the control instructions according to the preset batch lighting method include: Analyze lighting pattern parameters and preset solar lamp serial numbers to determine batch start serial numbers; Analyze usage parameters and preset consumption parameters to determine batch usage time; The batch start sequence number and batch usage time are associated to generate control instructions.

9. A solar lamp control method according to claim 5, characterized in that: It also includes a self-cleaning step, which includes: Obtain the self-cleaning trigger signal of the preset solar panel; The preset self-cleaning device is controlled according to the self-cleaning trigger signal to clean the solar panel.

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