Intelligent Bluetooth control system and method based on solar power supply

Abstract

The invention is suitable for the technical field of intelligent control, and provides an intelligent Bluetooth control system and method based on solar power supply, the system comprises a solar panel, a battery pack, a central controller and a plurality of electric devices, the central controller is in Bluetooth communication connection with the electric devices, and the central controller comprises an information real-time acquisition module, an information processing module and a control module, the determination module is used for determining battery power, illumination intensity information and current working conditions; the electric equipment classification module is used for classifying the plurality of electric equipment according to the current working condition to obtain a first type of electric equipment, a second type of electric equipment and a third type of electric equipment, and determining a basic use function and a recommended use function of each electric equipment according to the current working condition; and the starting command generation module is used for determining the electric equipment capable of being started and equipment functions according to the battery electric quantity and the illumination intensity information, and generating an electric equipment starting command. According to the invention, the operation state of the electric equipment is intelligently adjusted according to the actual situation, and unnecessary energy waste is avoided.

Description

Technical Field

[0001] The present invention relates to the field of intelligent control technology, and in particular to an intelligent Bluetooth control system and method based on solar power supply. Background Art

[0002] As a clean and renewable energy source, the development and utilization of solar energy is of great significance for reducing carbon emissions and protecting the environment. In the field of smart home and Internet of Things, intelligent control systems are gradually becoming popular, enabling electrical equipment in homes and workplaces to operate more efficiently and energy-savingly. However, most traditional intelligent control systems rely on mains power supply, which has the problems of high energy consumption and insufficient environmental protection. In addition, existing intelligent control systems have deficiencies in the management of electrical equipment. They often simply control the switch and operating status of the equipment according to the user's instructions or preset programs, and lack the ability to make intelligent adjustments according to actual conditions. This results in some unnecessary electrical equipment still running in the case of insufficient energy supply or poor lighting conditions, thereby wasting energy and shortening the life of the equipment, and the electrical equipment needs to be wirelessly controlled through a network connection, and the cost of the network module is relatively high. Therefore, it is necessary to provide an intelligent Bluetooth control system and method based on solar power supply to solve the above problems. Summary of the invention

[0003] In view of the deficiencies in the prior art, the object of the present invention is to provide an intelligent Bluetooth control system and method based on solar power supply to solve the problems existing in the above-mentioned background technology.

[0004] The present invention is implemented as follows: an intelligent Bluetooth control system based on solar power supply, the system includes a solar panel, a battery pack, a central controller and a plurality of electrical devices, the central controller and the electrical devices are both equipped with a Bluetooth module, the central controller is connected to the plurality of electrical devices via Bluetooth communication, the solar panel is used to charge the battery pack, the battery pack is used to power the plurality of electrical devices, and the central controller specifically includes: The real-time information collection module is used to determine the battery power, light intensity information and the current working condition, and the current working condition is determined according to the selection instruction input by the user; An electrical equipment classification module is used to classify a number of electrical equipment according to the current working conditions to obtain first-category electrical equipment, second-category electrical equipment and third-category electrical equipment, and determine the basic use function and recommended use function of each electrical equipment according to the current working conditions; An activation command generation module is used to determine the power-consuming devices and device functions that can be enabled according to the battery power and light intensity information, and generate a power-consuming device activation command; The activation command transmission module is used to send the power-consuming device activation command to the corresponding power-consuming device via Bluetooth transmission to control the power-consuming device to work.

[0005] As a further solution of the present invention: the electrical equipment classification module includes: A current working condition input unit, used to input the current working condition into a working condition equipment library, wherein the working condition equipment library includes all working condition information, each working condition information corresponds to a first-category electrical equipment, a second-category electrical equipment, and a third-category electrical equipment, and each electrical equipment corresponds to a basic use function and a recommended use function; An electrical equipment classification unit is used to automatically classify a plurality of electrical equipment to obtain first-category electrical equipment, second-category electrical equipment and third-category electrical equipment; The usage function output unit is used to output the basic usage function and recommended usage function corresponding to each electrical equipment under the current working conditions.

[0006] As a further solution of the present invention: the enabling command generating module includes: An electric power acquisition unit is used to acquire the electric power of the basic usage function and the recommended usage function of each electric device; An electric device activation unit is used to determine the electric devices that can be activated according to the battery power and the power consumption of the basic usage function; The device function enabling unit is used to determine the device functions of the power-consuming devices that can be enabled according to the light intensity information and the power consumption of the recommended functions.

[0007] As a further solution of the present invention: the power-consuming device activation unit comprises: An average use time subunit, used to determine the average use time of the current working condition according to the historical records; The power consumption calculation subunit is used to calculate the power consumption of the first-category power-consuming device when the basic usage function is enabled, and determine the remaining power according to the battery power and the power consumption; The partial second-category equipment sub-unit is used to determine the partial second-category electric users according to the remaining power and the electric power consumption of the basic usage function of the second-category electric users. The partial second-category electric users and all the first-category electric users constitute the enabled electric users.

[0008] As a further solution of the present invention: the enabling device function unit includes: An average charging power subunit, used to determine the average charging power during use according to the light intensity information; A partial recommended function subunit, used to determine partial recommended use functions according to the power consumption and average charging power of the recommended use functions of the enabled electric-consuming equipment; The device function enabling subunit is used to determine the device functions of the electric device that can be enabled based on some recommended usage functions and all basic usage functions of the enabled electric device.

[0009] Another object of the present invention is to provide a smart Bluetooth control method based on solar power supply, the method comprising the following steps: Determine battery power, light intensity information and current operating conditions, the current operating conditions are determined according to the selection instructions input by the user; Classify a number of electrical equipment according to the current working conditions to obtain first-category electrical equipment, second-category electrical equipment, and third-category electrical equipment, and determine the basic use function and recommended use function of each electrical equipment according to the current working conditions; Determine the enabled electrical devices and device functions according to the battery power and light intensity information, and generate an electrical device enablement command; The power-consuming device activation command is sent to the corresponding power-consuming device via Bluetooth transmission to control the power-consuming device to work.

[0010] As a further solution of the present invention: the step of classifying a plurality of electrical devices according to the current working conditions to obtain first-category electrical devices, second-category electrical devices and third-category electrical devices, and determining the basic use function and recommended use function of each electrical device according to the current working conditions specifically includes: Input the current working condition into the working condition equipment library, wherein the working condition equipment library includes all working condition information, each working condition information corresponds to a first-category electrical equipment, a second-category electrical equipment, and a third-category electrical equipment, and each electrical equipment corresponds to a basic use function and a recommended use function; Automatically classify a number of electrical appliances to obtain first-category electrical appliances, second-category electrical appliances, and third-category electrical appliances; Output the basic usage functions and recommended usage functions for each electrical equipment under the current working conditions.

[0011] As a further solution of the present invention: the step of determining the enabled electrical devices and device functions according to the battery power and light intensity information specifically includes: Retrieve the power consumption of the basic usage function and recommended usage function of each electrical equipment; Determine the enabled power-consuming devices based on the battery power and the power consumption of basic usage functions; The device functions of the power-consuming device that can be enabled are determined according to the light intensity information and the power consumption of the recommended function.

[0012] As a further solution of the present invention: the step of determining the enabled electrical equipment according to the battery power and the power consumption of the basic usage function specifically includes: Determine the average usage time of the current working condition based on historical records; Calculate the power consumption of the first category of power-consuming equipment when basic usage functions are enabled, and determine the remaining power based on the battery power and the power consumption; Some of the second-category electric consumers are determined based on the remaining power and the power consumption of the basic usage functions of the second-category electric consumers. Some of the second-category electric consumers and all of the first-category electric consumers constitute the enabled electric consumers.

[0013] As a further solution of the present invention: the step of determining the device function of the electrical device that can be enabled according to the light intensity information and the power consumption of the recommended function specifically includes: Determine the average charging power during use based on the light intensity information; Determine some recommended usage functions according to the power consumption and average charging power of the recommended usage functions of the enabled power-consuming equipment; The device functions of the electric device that can be enabled are determined based on some recommended usage functions and all basic usage functions of the enabled electric device.

[0014] Compared with the prior art, the present invention has the following beneficial effects: The present invention obtains battery power, light intensity information and current working conditions, and classifies and manages electrical devices based on this information, so that the system can intelligently adjust the operating status of electrical devices according to actual conditions, avoiding unnecessary energy waste. It can also determine the enabled electrical devices and device functions based on the battery power and light intensity information, thereby ensuring that when energy supply is limited, the operation of electrical devices that must be used is prioritized to improve energy utilization efficiency. In addition, Bluetooth communication has low cost and is flexible and scalable. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 The schematic diagram is a structural diagram of a central controller of a solar-powered smart Bluetooth control system.

[0016] Figure 2 The present invention is a flow chart of a smart Bluetooth control method based on solar power supply.

[0017] Figure 3 The present invention is a flow chart for classifying electrical devices in a smart Bluetooth control method based on solar power supply.

[0018] Figure 4 The present invention is a flow chart for determining enabled power-consuming devices and device functions in a smart Bluetooth control method based on solar power supply.

[0019] Figure 5The present invention is a flow chart for determining enabled electrical devices in a solar-powered smart Bluetooth control method.

[0020] Figure 6 A flow chart for determining enabled device functions in a solar-powered smart Bluetooth control method. DETAILED DESCRIPTION

[0021] In order to make the purpose, technical solution and advantages of the present invention clearer, the present invention is further described in detail below in conjunction with the accompanying drawings and specific embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not used to limit the present invention.

[0022] The specific implementation of the present invention is described in detail below in conjunction with specific embodiments.

[0023] like Figure 1 As shown, an embodiment of the present invention provides an intelligent Bluetooth control system based on solar power supply, the system includes a solar panel, a battery pack, a central controller and a plurality of electric devices, the central controller and the electric devices are both equipped with a Bluetooth module, the central controller is connected to the plurality of electric devices via Bluetooth communication, the solar panel is used to charge the battery pack, the battery pack is used to power the plurality of electric devices, and the central controller specifically includes: The real-time information acquisition module 100 is used to determine the battery power, light intensity information and the current working condition, and the current working condition is determined according to the selection instruction input by the user; The electrical equipment classification module 200 is used to classify a plurality of electrical equipment according to the current working conditions to obtain first-category electrical equipment, second-category electrical equipment and third-category electrical equipment, and determine the basic use function and recommended use function of each electrical equipment according to the current working conditions; An activation command generating module 300 is used to determine the electric devices and device functions that can be enabled according to the battery power and light intensity information, and generate an activation command for the electric device; The activation command transmission module 400 is used to send the power-consuming device activation command to the corresponding power-consuming device via Bluetooth transmission to control the power-consuming device to work.

[0024] It should be noted that most of the current intelligent control systems rely on mains power supply, which has the problems of high energy consumption and lack of environmental protection. In addition, the existing intelligent control systems have deficiencies in the management of electrical equipment. They often simply control the switch and operating status of the equipment according to the user's instructions or preset programs, and lack the ability to make intelligent adjustments based on actual conditions (such as battery power, light intensity, etc.). This results in some unnecessary electrical equipment still running when the energy supply is insufficient or the lighting conditions are poor, thereby wasting energy and shortening the life of the equipment. In addition, the electrical equipment needs to be wirelessly controlled through a network connection, and the cost of the network module is relatively high. The embodiments of the present invention are intended to solve the above problems.

[0025] In the embodiment of the present invention, the central controller can monitor the battery pack, determine the battery power of the battery pack, and obtain the local weather forecast information, process the weather forecast information to obtain the light intensity information, and then when the user needs to use the power-consuming device, directly input the command to the central controller to obtain the current working condition; then the embodiment of the present invention will classify a number of power-consuming devices according to the current working condition to obtain the first type of power-consuming devices, the second type of power-consuming devices and the third type of power-consuming devices, wherein the first type of power-consuming devices are devices that must be used, the second type of power-consuming devices are recommended for use, and the first type of power-consuming devices are devices that do not need to be used, and automatically determine the basic use function and recommended use function of each power-consuming device according to the current working condition. Then, the power-consuming devices and device functions that can be enabled are determined according to the battery power and light intensity information, and the power-consuming device enabling command is generated, and finally the power-consuming device enabling command is sent to the corresponding power-consuming device through Bluetooth transmission to control the power-consuming device to work and perform the corresponding function.

[0026] In summary, the embodiment of the present invention charges the battery pack through the solar panel, realizes the effective use of renewable energy, reduces the dependence on traditional energy, reduces carbon emissions, and conforms to the development trend of green and environmental protection. The central controller obtains the battery power, light intensity information and current working conditions in real time, and classifies and manages the power-consuming equipment according to this information. This enables the system to intelligently adjust the operating status of the power-consuming equipment according to the actual situation, avoiding unnecessary energy waste. And it can determine the enabled power-consuming equipment and equipment functions according to the battery power and light intensity information, so as to ensure that when the energy supply is limited, the operation of the power-consuming equipment that must be used is prioritized to improve the efficiency of energy utilization. In addition, Bluetooth communication has low cost, flexibility and scalability, and users can add or delete power-consuming equipment at any time as needed without large-scale transformation or upgrading of the system.

[0027] As a preferred embodiment of the present invention, the electrical equipment classification module 200 includes: A current working condition input unit, used to input the current working condition into a working condition equipment library, wherein the working condition equipment library includes all working condition information, each working condition information corresponds to a first-category electrical equipment, a second-category electrical equipment, and a third-category electrical equipment, and each electrical equipment corresponds to a basic use function and a recommended use function; An electrical equipment classification unit is used to automatically classify a plurality of electrical equipment to obtain first-category electrical equipment, second-category electrical equipment and third-category electrical equipment; The usage function output unit is used to output the basic usage function and recommended usage function corresponding to each electrical equipment under the current working conditions.

[0028] In the embodiment of the present invention, a working condition equipment library is established in advance, and the working condition equipment library includes all working condition information, each working condition information corresponds to a first-category electric device, a second-category electric device, and a third-category electric device, and each electric device corresponds to a basic use function and a recommended use function. When the current working condition is input into the working condition equipment library, a number of electric devices will be automatically classified to obtain the first-category electric device, the second-category electric device, and the third-category electric device, and the basic use function and the recommended use function corresponding to each electric device under the current working condition will be automatically output.

[0029] As a preferred embodiment of the present invention, the enabling command generating module 300 includes: An electric power acquisition unit is used to acquire the electric power of the basic usage function and the recommended usage function of each electric device; An electric device activation unit is used to determine the electric devices that can be activated according to the battery power and the power consumption of the basic usage function; An enabling device function unit, used to determine the device function of the power-consuming device that can be enabled according to the light intensity information and the power consumption of the recommended function; Furthermore, in the step of determining the enabled electrical equipment according to the battery power and the power consumption of the basic usage function, the remaining battery power is calculated based on the current battery power and the power consumption of the electrical appliance. The corresponding process has the following relationship: ; in, Indicates the remaining battery power. Indicates the current battery level. Indicates The power consumption of the basic functions of each electrical equipment, Indicates The average usage time of each electrical device, Indicates The capacitance of an electrical device, Indicates The voltage of each electrical device, Indicates The resistance of an electrical device, Indicates The current of each electrical device, Indicates The nonlinear energy consumption coefficient of each electrical equipment is Indicates the total number of electrical devices. Indicates The basic power consumption of each electrical device during the average use time, Indicates The energy consumption of the capacitor of an electrical device under voltage, Indicates The energy loss of the resistance of an electrical device under current, Indicates The nonlinear energy consumption coefficient of each electrical device during use; Based on the obtained remaining battery power, the power-consuming devices that can be enabled are judged and determined.

[0030] The present invention is mainly used to calculate and predict the remaining power of a battery within a period of time, and help determine the battery's endurance. By calculating the power consumption of each electrical device, the system can optimize the device's start and stop strategy, extend battery life, and improve system performance. The data provided by the present invention can be used as input to an intelligent decision-making system, helping the system make more reasonable device activation and shutdown decisions based on real-time power conditions, thereby ensuring the reliability and stability of system operation.

[0031] The present invention comprehensively considers multiple energy consumption factors, including basic power consumption, capacitor charging and discharging energy, resistor energy loss and nonlinear energy loss, so that the remaining power calculation is more comprehensive and accurate. The present invention can adapt to different types and numbers of electrical equipment, and by adjusting the total number of electrical equipment and other parameters, the remaining power under different circumstances can be calculated.

[0032] In the embodiment of the present invention, the basic usage functions and the power consumption of the recommended usage functions of each power-consuming device stored in advance will be retrieved, and then the power-consuming devices that can be enabled will be determined based on the battery power and the power consumption of the basic usage functions. The power-consuming devices that can be enabled can all perform the basic usage functions. Finally, the device functions of the power-consuming devices that can be enabled will be determined based on the light intensity information and the power consumption of the recommended usage functions. Here, some recommended usage functions will be determined to be enabled based on the charging speed, so that the user experience is better.

[0033] As a preferred embodiment of the present invention, the power-consuming device activation unit includes: An average use time subunit, used to determine the average use time of the current working condition according to the historical records; The power consumption calculation subunit is used to calculate the power consumption of the first-category power-consuming device when the basic usage function is enabled, and determine the remaining power according to the battery power and the power consumption; A part of the second-category equipment subunit is used to determine part of the second-category electric users according to the remaining power and the power consumption of the basic use function of the second-category electric users, and part of the second-category electric users and all the first-category electric users constitute the enabled electric users; Furthermore, in the step of determining the average usage time of the current working condition according to the historical records, the relationship between the corresponding process is: ; in, Indicates the average usage time of the current working condition. Indicates the number of historical records. Indicates The usage time of the electrical equipment in the historical records, Indicates The number of electrical devices in the history records, Indicates The first in the history The usage time of each electrical device, Indicates The weight of the historical record, Indicates History records Failure rate of individual electrical equipment; represents the failure rate adjustment factor, i.e., the ratio of weight to failure rate adjusted for the usage time; Indicates The weighted average usage time in the history records.

[0034] The present invention is mainly used to evaluate the average usage time of equipment under current conditions, and to help determine the expected working time and reliability of the equipment. By calculating the average usage time of each device, the system can optimize the management strategy of the equipment, thereby improving the utilization efficiency of the equipment and the stability of the system operation. The weighted average usage time data provided by this formula can be used as the input of the decision support system, helping the system to make more reasonable equipment management decisions based on historical data and optimize resource allocation and use.

[0035] The present invention comprehensively considers the usage time of the equipment in the historical records, the equipment failure rate and the record weight, so that the calculation result is more comprehensive and accurate; by introducing the weight of the historical records and the equipment failure rate factors, the present invention can adapt to the weight distribution of different equipment and different historical records, and more flexibly reflect the actual usage; this formula refines the consideration of the usage of each device in the historical records, and through multi-level weighted average calculation, the result is more accurate.

[0036] In an embodiment of the present invention, the central controller records the usage time of each working condition. In this way, the average usage time of the current working condition can be determined based on the historical records, and then the power consumption of the first-category power-consuming equipment when the basic usage function is enabled is calculated, and the remaining power is determined based on the battery power and the consumed power. Then, some of the second-category power-consuming equipment is determined based on the remaining power and the power consumption of the basic usage function of the second-category power-consuming equipment. Some of the second-category power-consuming equipment and all of the first-category power-consuming equipment constitute the enabled power-consuming equipment. The second-category power-consuming equipment will be sorted by priority to ensure that the equipment with a high priority is enabled as much as possible.

[0037] As a preferred embodiment of the present invention, the enabling device function unit includes: An average charging power subunit, used to determine the average charging power during use according to the light intensity information; A partial recommended function subunit, used to determine partial recommended use functions according to the power consumption and average charging power of the recommended use functions of the enabled electric-consuming equipment; The device function enabling subunit is used to determine the device functions of the power-consuming device that can be enabled based on some recommended usage functions and all basic usage functions of the enabled power-consuming device. Furthermore, in the step of determining the average charging power during use according to the light intensity information, the relationship between the corresponding process is: ; in, represents the average charging power, Indicates the light intensity, represents the conversion factor, Indicates the efficiency of the solar panel. Indicates the current temperature. represents the reference temperature, Indicates the maximum operating temperature, The coefficient that represents the effect of temperature change on the efficiency of solar panels, represents the linear temperature correction coefficient; Represents the temperature correction coefficient, that is, the nonlinear efficiency change when the temperature deviates from the reference temperature.

[0038] The present invention is used to evaluate the charging capacity of solar panels under specific light and temperature conditions, helping to determine the performance of the solar energy system under the current environment; by calculating the charging power under different environmental conditions, it can help optimize the design and installation location of the solar energy system and improve the overall efficiency and reliability; the average charging power data provided can be used as input for system management and scheduling, helping to make more reasonable decisions based on real-time environmental conditions and optimize resource allocation and use; The present invention comprehensively considers the influence of light intensity, linear and nonlinear changes of temperature on the charging power of solar panels, so that the calculation results are more comprehensive and accurate; by introducing multiple adjustment parameters, it can adapt to solar panels of different types and efficiencies, as well as different environmental conditions; the formula refines the linear and nonlinear influence of temperature on the efficiency of solar panels, and makes the results more accurate through exponential adjustment.

[0039] In the step of determining part of the recommended usage functions according to the power consumption and average charging power of the recommended usage functions of the enabled power-consuming equipment, the relationship in the corresponding process is: ; in, Indicates The power consumption of the recommended function of each electrical device, Indicates The resistance of an electrical device, Indicates The inductance of an electrical device, Indicates The time-varying factor coefficient of each electrical equipment, Indicates The angular frequency of each electrical device, Indicates The damping coefficient of each electrical device, Indicates The phase angle of each electrical device, Represents the exponential decay characteristics of resistance and inductance on power consumption, Represents the combined effect of time-varying factors, angular frequency, damping coefficient, and phase angle on power consumption.

[0040] The present invention is used to determine whether a device can enable its recommended function under the current power supply conditions, and help the system make the best decision under limited resources; by calculating the recommended power consumption of different devices, the allocation of batteries and power supply resources can be optimized, and the operating efficiency and stability of the system can be improved; the recommended power consumption data provided can be used as input for system management and scheduling, helping the system to make more reasonable equipment start and stop decisions based on real-time power and energy conditions, and improve equipment utilization and performance; The present invention comprehensively considers multiple factors such as average charging power, remaining power, resistance, inductance, time-varying factors, angular frequency, damping coefficient and phase angle, so that the calculation results are more comprehensive and accurate; by introducing multiple adjustment parameters, the present invention can adapt to electrical equipment of different types and functions, as well as different power supply and working conditions; by refining the time and periodic changes of energy consumption, exponential and trigonometric function terms are adjusted, so that the results are more accurate.

[0041] In the embodiment of the present invention, the average charging power during use is also determined based on the light intensity information, and then some recommended functions are determined based on the power consumption of the recommended functions of the enabled electrical equipment and the average charging power. The recommended functions are also prioritized to ensure that functions with high priority are enabled as much as possible, and then integrated to obtain the device functions of the enabled electrical equipment.

[0042] like Figure 2 As shown, an embodiment of the present invention also provides a smart Bluetooth control method based on solar power supply, the method comprising the following steps: S100, determining battery power, light intensity information and current working conditions, where the current working conditions are determined according to a selection instruction input by a user; S100, classifying a plurality of electrical devices according to current working conditions to obtain first-category electrical devices, second-category electrical devices, and third-category electrical devices, and determining a basic use function and a recommended use function of each electrical device according to the current working conditions; S100, determining the enabled electrical devices and device functions according to the battery power and light intensity information, and generating an electrical device enabling command; S100, sending an electric device activation command to a corresponding electric device via Bluetooth transmission to control the electric device to operate.

[0043] like Figure 3 As shown, as a preferred embodiment of the present invention, the steps of classifying a plurality of electrical devices according to the current working conditions to obtain first-category electrical devices, second-category electrical devices, and third-category electrical devices, and determining the basic use function and recommended use function of each electrical device according to the current working conditions, specifically include: S201, inputting the current working condition into a working condition equipment library, wherein the working condition equipment library includes all working condition information, each working condition information corresponds to a first-category electrical equipment, a second-category electrical equipment, and a third-category electrical equipment, and each electrical equipment corresponds to a basic use function and a recommended use function; S202, automatically classifying a plurality of electrical devices to obtain first-category electrical devices, second-category electrical devices, and third-category electrical devices; S203, outputting the basic usage functions and recommended usage functions corresponding to each electrical equipment under the current working condition.

[0044] like Figure 4 As shown, as a preferred embodiment of the present invention, the step of determining the enabled electrical devices and device functions according to the battery power and light intensity information specifically includes: S301, retrieve the power consumption of the basic usage function and the recommended usage function of each electrical device; S302, determining the power-consuming devices that can be enabled according to the battery power and the power consumption of the basic usage functions; S303: Determine the device functions of the electrical devices that can be enabled according to the light intensity information and the power consumption of the recommended functions.

[0045] like Figure 5 As shown, as a preferred embodiment of the present invention, the step of determining the enabled electrical equipment according to the battery power and the power consumption of the basic usage function specifically includes: S3021, determining the average usage time of the current working condition according to the historical records; S3022, calculating the power consumption of the first category of electrical equipment when the basic usage function is enabled, and determining the remaining power according to the battery power and the power consumption; S3023, determining some of the second-category electric users according to the remaining power and the power consumption of the basic usage functions of the second-category electric users, and some of the second-category electric users and all of the first-category electric users constitute the enabled electric users.

[0046] like Figure 6 As shown, as a preferred embodiment of the present invention, the step of determining the device function of the electric device that can be enabled according to the light intensity information and the power consumption of the recommended function specifically includes: S3031, determining an average charging power during use according to the light intensity information; S3032, determining some recommended functions according to the power consumption and average charging power of the recommended functions of the enabled electrical equipment; S3033: Determine the device functions of the electric device that can be enabled based on some recommended usage functions and all basic usage functions of the enabled electric device.

[0047] The above only describes in detail the preferred embodiments of the present invention, which is not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

[0048] It should be understood that, although each step in the flow chart of each embodiment of the present invention is shown in sequence according to the indication of the arrow, these steps are not necessarily performed in sequence according to the order indicated by the arrow. Unless there is a clear explanation in this article, the execution of these steps does not have a strict order restriction, and these steps can be performed in other orders. Moreover, at least a portion of the steps in each embodiment may include a plurality of sub-steps or a plurality of stages, and these sub-steps or stages are not necessarily performed at the same time, but can be performed at different times, and the execution order of these sub-steps or stages is not necessarily performed in sequence, but can be performed in turn or alternately with at least a portion of other steps or sub-steps or stages of other steps.

[0049] Those skilled in the art can understand that all or part of the processes in the above-mentioned embodiment methods can be completed by instructing the relevant hardware through a computer program, and the program can be stored in a non-volatile computer-readable storage medium. When the program is executed, it can include the processes of the embodiments of the above-mentioned methods. Among them, any reference to memory, storage, database or other media used in the embodiments provided in this application may include non-volatile and / or volatile memory. Non-volatile memory may include read-only memory (ROM), programmable ROM (PROM), electrically programmable ROM (EPROM), electrically erasable programmable ROM (EEPROM) or flash memory. Volatile memory may include random access memory (RAM) or external cache memory. As an illustration and not limitation, RAM is available in many forms, such as static RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), double data rate SDRAM (DDRSDRAM), enhanced SDRAM (ESDRAM), synchronous link (Synchlink) DRAM (SLDRAM), memory bus (Rambus) direct RAM (RDRAM), direct memory bus dynamic RAM (DRDRAM), and memory bus dynamic RAM (RDRAM).

[0050] Those skilled in the art will readily appreciate other embodiments of the present disclosure after considering the disclosure in the specification and examples. This application is intended to cover any variations, uses or adaptations of the present disclosure, which follow the general principles of the present disclosure and include common knowledge or customary techniques in the art that are not disclosed in the present disclosure. The specification and examples are intended to be exemplary only, and the true scope and spirit of the present disclosure are indicated by the claims.

Claims

1. An intelligent Bluetooth control system based on solar power supply, characterized in that: The system includes solar panels, battery packs, a central controller and several electric devices. The central controller and the electric devices are both equipped with Bluetooth modules. The central controller is connected to the several electric devices via Bluetooth communication. The solar panels are used to charge the battery packs. The battery packs are used to power the several electric devices. The central controller specifically includes: The real-time information collection module is used to determine the battery power, light intensity information and the current working condition, and the current working condition is determined according to the selection instruction input by the user; An electrical equipment classification module is used to classify a number of electrical equipment according to the current working conditions to obtain first-category electrical equipment, second-category electrical equipment and third-category electrical equipment, and determine the basic use function and recommended use function of each electrical equipment according to the current working conditions; An activation command generation module is used to determine the electrical devices and device functions that can be enabled according to the battery power and light intensity information, and generate an activation command for the electrical device; The activation command transmission module is used to send the power-consuming device activation command to the corresponding power-consuming device via Bluetooth transmission to control the power-consuming device to work.

2. According to claim 1, a solar-powered intelligent Bluetooth control system is characterized in that: The electrical equipment classification module comprises: A current working condition input unit, used to input the current working condition into a working condition equipment library, wherein the working condition equipment library includes all working condition information, each working condition information corresponds to a first-category electrical equipment, a second-category electrical equipment, and a third-category electrical equipment, and each electrical equipment corresponds to a basic use function and a recommended use function; An electrical equipment classification unit is used to automatically classify a plurality of electrical equipment to obtain first-category electrical equipment, second-category electrical equipment and third-category electrical equipment; The usage function output unit is used to output the basic usage function and recommended usage function corresponding to each electrical equipment under the current working conditions.

3. According to claim 1, a solar-powered smart Bluetooth control system is characterized in that: The enabling command generating module comprises: An electric power acquisition unit is used to acquire the electric power of the basic usage function and the recommended usage function of each electric device; An electric device activation unit is used to determine the electric devices that can be activated according to the battery power and the power consumption of the basic usage function; The device function enabling unit is used to determine the device functions of the power-consuming devices that can be enabled according to the light intensity information and the power consumption of the recommended functions.

4. According to claim 3, a solar-powered intelligent Bluetooth control system is characterized in that: In the step of determining the enabled electrical devices according to the battery power and the power consumption of the basic usage functions, the remaining battery power is calculated based on the current battery power and the power consumption of the electrical appliances. The corresponding process has the following relationship: ； in, Indicates the remaining battery power. Indicates the current battery level. Indicates The power consumption of the basic functions of each electrical equipment, Indicates The average usage time of each electrical device, Indicates The capacitance of an electrical device, Indicates The voltage of each electrical device, Indicates The resistance of an electrical device, Indicates The current of each electrical device, Indicates The nonlinear energy consumption coefficient of each electrical equipment is Indicates the total number of electrical devices.

5. The solar-powered intelligent Bluetooth control system according to claim 4, characterized in that: The power-consuming device activation unit comprises: An average use time subunit, used to determine the average use time of the current working condition according to the historical records; The power consumption calculation subunit is used to calculate the power consumption of the first-category power-consuming device when the basic usage function is enabled, and determine the remaining power according to the battery power and the power consumption; The partial second-category equipment sub-unit is used to determine the partial second-category electric users according to the remaining power and the electric power consumption of the basic usage function of the second-category electric users. The partial second-category electric users and all the first-category electric users constitute the enabled electric users.

6. The solar-powered intelligent Bluetooth control system according to claim 5, characterized in that: In the step of determining the average usage time of the current working condition according to the historical records, the relationship between the corresponding process is: ； in, Indicates the average usage time of the current working condition. Indicates the number of historical records. Indicates The usage time of the electrical equipment in the historical records, Indicates The number of electrical devices in the history records, Indicates The first in the history The usage time of each electrical device, Indicates The weight of the historical record, Indicates History records The failure rate of electrical equipment.

7. The solar-powered smart Bluetooth control system according to claim 6, characterized in that: The enabling device function unit comprises: An average charging power subunit, used to determine the average charging power during use according to the light intensity information; A partial recommended function subunit, used to determine partial recommended use functions according to the power consumption and average charging power of the recommended use functions of the enabled electric-consuming equipment; The device function enabling subunit is used to determine the device functions of the electric device that can be enabled based on some recommended usage functions and all basic usage functions of the enabled electric device.

8. The solar-powered smart Bluetooth control system according to claim 6, characterized in that: In the step of determining the average charging power during use according to the light intensity information, the relationship between the corresponding process is: ； in, represents the average charging power, Indicates the light intensity, represents the conversion factor, Indicates the efficiency of the solar panel. Indicates the current temperature. represents the reference temperature, Indicates the maximum operating temperature, A coefficient that represents the effect of temperature changes on the efficiency of solar panels.

9. The solar-powered smart Bluetooth control system according to claim 8, characterized in that: In the step of determining part of the recommended usage functions according to the power consumption and average charging power of the recommended usage functions of the enabled power-consuming equipment, the relationship in the corresponding process is: ； in, Indicates The power consumption of the recommended function of each electrical device, Indicates The resistance of an electrical device, Indicates The inductance of an electrical device, Indicates The time-varying factor coefficient of each electrical equipment, Indicates The angular frequency of each electrical device, Indicates The damping coefficient of each electrical device, Indicates The phase angle of each electrical device.

10. A solar powered smart Bluetooth control method, characterized in that: The method is implemented by the solar-powered smart Bluetooth control system according to any one of claims 1 to 9, and the method comprises the following steps: Determine battery power, light intensity information and current operating conditions, the current operating conditions are determined according to the selection instructions input by the user; Classify a number of electrical equipment according to the current working conditions to obtain first-category electrical equipment, second-category electrical equipment, and third-category electrical equipment, and determine the basic use function and recommended use function of each electrical equipment according to the current working conditions; Determine the enabled electrical devices and device functions according to the battery power and light intensity information, and generate an electrical device enablement command; The power-consuming device activation command is sent to the corresponding power-consuming device via Bluetooth transmission to control the power-consuming device to work.

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