Outdoor Portable Solar Lamp Control System

Abstract

The present invention discloses a control system for outdoor portable solar lamps, which relates to the technical field of solar lamp control. It solves the technical problem in the prior art that portable solar lamps cannot synchronously analyze the direct environmental impact and indirect environmental impact of real-time usage scenarios. Specifically, it includes a direct environmental impact detection unit, which is used to detect the direct environmental impact of the solar lamp usage scenario, collect non-single environment satisfaction information and single environment satisfaction information, and infer whether the direct environmental impact corresponding to the single lamp usage scenario and the non-single lamp usage scenario is normal according to the information comparison. If it is normal, continue monitoring; if not, rectify it. The indirect environmental impact detection unit is used to collect supply time data and impact time data, and detect whether the indirect environmental impact is abnormal according to the data comparison. If it is abnormal, conduct regulation; if not, continue monitoring.

Description

Technical Field

[0001] The present invention relates to the technical field of solar lamp control, and particularly to a portable solar lamp control system for outdoor use. Background Art

[0002] The portable solar lamp control system mainly consists of a solar panel, a charge controller, a storage battery, an LED lamp, a control circuit, etc.; its working principle is that the solar panel converts solar energy into electrical energy, charges the storage battery through the charge controller, the storage battery stores electrical energy and provides power for the LED lamp when needed, and the control circuit realizes the control and regulation of functions such as charging, discharging, and lighting modes to meet the usage requirements in different scenarios.

[0003] However, in the prior art, the portable solar lamp cannot synchronously analyze the direct environmental impact and indirect environmental impact of the real-time usage scenario, so that it cannot accurately control according to the real-time environmental fluctuations, resulting in the inability to regulate the operating efficiency of the solar lamp to the optimal state. In addition, it is unable to detect the photovoltaic charging of the solar lamp, so that it cannot ensure the stable operation performance of the solar lamp or the operation performance is in the optimal state, reducing the operating efficiency of the solar lamp.

[0004] In view of the above technical defects, a solution is proposed now. Summary of the Invention

[0005] The purpose of the present invention is to solve the above-mentioned problems and propose a portable solar lamp control system for outdoor use.

[0006] The purpose of the present invention can be achieved through the following technical solutions:

[0007] The portable solar lamp control system for outdoor use includes a control center, and the control center is communicatively connected to a scenario terminal and a device terminal;

[0008] The scenario terminal is communicatively connected to:

[0009] An environmental direct impact detection unit, which is used to detect the environmental direct impact of the solar lamp usage scenario, collect non-single environment satisfaction information and single environment satisfaction information, and infer whether the environmental direct impact corresponding to the single lamp usage scenario and the non-single lamp usage scenario is normal according to the information comparison; if so, continue to monitor, otherwise, rectify;

[0010] An environmental indirect impact detection unit, which is used to collect supply time data and impact time data, and detect whether the environmental indirect impact is abnormal according to the data comparison; if so, carry out regulation, otherwise, continue to monitor;

[0011] The device terminal is communicatively connected to:

[0012] The charge and discharge detection unit is used to collect charge and discharge detection information, calculate and obtain the charge and discharge detection coefficient, and infer whether the charge and discharge detection is abnormal according to the coefficient comparison. If so, charge and discharge regulation is carried out; if not, continuous detection is carried out.

[0013] The usage quality prediction unit is used to collect conversion parameters and supply parameters, and infer whether the usage quality prediction of the solar lamp is abnormal according to the parameter analysis. If so, shutdown and rectification are carried out; if not, continue lighting operation.

[0014] As a preferred embodiment of the present invention, the non-single environment satisfaction information and the single environment satisfaction information are respectively the ratio of the maximum deviation value of the light reception amount at the adjacent distribution positions corresponding to the solar lamp to the deviation value of the lighting duration deviation of the solar lamp at the corresponding distribution positions, and the ratio of the peak value of the continuous duration of the stored power of the solar lamp for lighting to the floating span corresponding value of the average lighting intensity of the lighting area covered by the real-time solar power generation for lighting.

[0015] As a preferred embodiment of the present invention, if the non-single environment satisfaction information exceeds the deviation ratio threshold, a non-single lighting abnormal signal is generated;

[0016] If the non-single environment satisfaction information does not exceed the deviation ratio threshold, a non-single lighting normal signal is generated;

[0017] If the single environment satisfaction information exceeds the peak span ratio threshold, a single lighting normal signal is generated;

[0018] If the single environment satisfaction information does not exceed the peak span ratio threshold, a single lighting abnormal signal is generated.

[0019] As a preferred embodiment of the present invention, the supply time data and the influence time data are respectively the ratio of the floating span of the real-time power storage space of the solar lamp corresponding to the temperature reciprocating floating stage in the current usage scenario to the maximum continuous time of the lighting area supply duration, and the overlapping duration of the time periods of the temperature reciprocating floating stage and the lighting brightness average reciprocating floating stage in the lighting area in the current usage scenario.

[0020] As a preferred embodiment of the present invention, if the supply time data exceeds the span time ratio threshold, or the influence time data exceeds the time period overlapping duration threshold, an indirect high influence signal is generated; if the supply time data does not exceed the span time ratio threshold and the influence time data does not exceed the time period overlapping duration threshold, an indirect low influence signal is generated.

[0021] As a preferred embodiment of the present invention, the collected charge-discharge detection information includes the duration without fluctuation of the power conversion rate during the photovoltaic power generation stage of the solar lamp, the cumulative value of the supply loss of the converted electric energy and the storage loss of the remaining converted electric energy during the photovoltaic power generation stage of the solar lamp, and the deviation value of the peak supply adjustment speed corresponding to different remaining real-time stored electric quantities when the required electric quantity fluctuates in the current usage scenario.

[0022] As a preferred embodiment of the present invention, if the charge-discharge detection coefficient exceeds the detection coefficient threshold, a charge-discharge detection abnormal signal is generated; if the charge-discharge detection coefficient does not exceed the detection coefficient threshold, a charge-discharge detection normal signal is generated.

[0023] As a preferred embodiment of the present invention, the conversion parameter and the supply parameter are respectively the total cumulative reduction span corresponding to the real-time conversion supply quantity and the real-time conversion storage quantity during the solar energy conversion process of the solar lamp, and the demand increase span corresponding to the conversion supply quantity under the same power operation scenario during the solar energy conversion process of the solar lamp.

[0024] As a preferred embodiment of the present invention, if the conversion parameter exceeds the cumulative reduction span threshold, or the supply parameter exceeds the demand increase span threshold, a predicted fault signal is generated; if the conversion parameter does not exceed the cumulative reduction span threshold and the supply parameter does not exceed the demand increase span threshold, a predicted fault-free signal is generated.

[0025] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0026] 1. In the present invention, the environmental direct impact of the usage scenario of the solar lamp is detected. Through the direct impact detection, it is inferred whether there is an impact on the usage environment of the portable solar lamp in the current usage scenario, so as to facilitate accurate control and ensure that the portable solar lamp can operate stably and meet the lighting requirements of the corresponding area in the actual usage scenario.

[0027] The environmental indirect impact of the usage scenario of the solar lamp is detected. Through the indirect impact of the usage scenario, it is inferred whether there is an impact on the lighting of the current solar lamp, so as to facilitate timely rectification to improve the usage efficiency of the solar lamp, reduce the environmental impact on the solar lamp, and timely adjust to minimize the environmental indirect impact.

[0028] 2. In the present invention, the photovoltaic charge-discharge of the solar lamp is detected. Through the charge-discharge execution detection, it is inferred whether there is a risk of a decline in the operating performance or an incomplete manifestation of the operating performance of the current solar lamp. Through the charge-discharge detection, the photovoltaic energy storage performance and functional performance of the solar lamp are fundamentally ensured, the most important energy-saving effect of the solar lamp is reflected, the usage efficiency of the solar lamp is improved, the lighting requirements of the lighting area are met, and the energy-saving performance is guaranteed at the same time.

[0029] Regulate the charge and discharge of the solar lamp to improve its usage efficiency, trace the real-time power transmission loss and rectify according to the components involved in the traceability. At the same time, debug the power transmission speed regulation performance to avoid the decline of the corresponding speed regulation performance due to the decrease of the remaining storage capacity. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] For the convenience of those skilled in the art to understand, the present invention will be further described below with reference to the accompanying drawings.

[0031] Figure 1 is the principle block diagram of the whole invention;

[0032] Figure 2 is the principle block diagram of the first embodiment of the present invention;

[0033] Figure 3 is the principle block diagram of the second embodiment of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0034] In order to enable those skilled in the art to better understand the solution of the present invention, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments. All other embodiments obtained by those of ordinary skill in the art without making creative efforts based on the embodiments of the present invention belong to the scope of protection of the present invention.

[0035] The mention of "embodiment" in this article means that the specific features, structures or characteristics described in connection with the embodiment can be included in at least one embodiment of the present invention. The phrase appears in various places in the specification does not necessarily refer to the same embodiment, nor is it an independent or alternative embodiment mutually exclusive with other embodiments. Those skilled in the art understand explicitly and implicitly that the embodiments described herein can be combined with other embodiments.

[0036] Please refer to Figure 1 As shown, the outdoor portable solar lamp control system includes a control center. The control center is communicatively connected to a scenario end and a device end. The control center serves as the data acquisition and processing center server, and the scenario end and the device end serve as data acquisition branch processors. The scenario end collects and analyzes data on the solar lamp usage scenario through means such as data sensors for scenario control; the device end collects and analyzes data on the solar lamp device itself through means such as data sensors for usage and operation control; Embodiment

[0037] Please refer to Figure 2 As shown, the control center is communicatively connected to an environmental direct impact detection unit and an environmental indirect impact detection unit with the scenario end;

[0038] After the control center generates a scene detection instruction and sends it to the scene side, the scene side generates an environment direct impact detection signal and sends the environment direct impact detection signal to the environment direct impact detection unit. After receiving the environment direct impact detection signal, the environment direct impact detection unit conducts an environment direct impact detection on the usage scenario of the solar lamp, and infers whether there is an impact on the usage environment of the portable solar lamp in the current usage scenario through the direct impact detection, so as to facilitate accurate control and ensure that the portable solar lamp can operate stably in the actual usage scenario and meet the lighting requirements of the corresponding area.

[0039] In a non-single lamp usage scenario, by collecting data on the surface of the solar panel corresponding to the sensor, the maximum deviation value of the light reception amount at the adjacent distribution positions corresponding to the solar lamp and the deviation value ratio of the lighting duration deviation value of the solar lamp at the corresponding distribution positions are obtained. The deviation value ratio only calculates the ratio of the numerical values of the two deviation values without considering the influence of inconsistent units.

[0040] In a single lamp usage scenario, the ratio of the peak value of the continuous duration of the lighting supplied by the stored power of the solar lamp to the floating span corresponding value of the average lighting intensity of the lighting coverage area supplied by the real-time solar energy power generation is obtained.

[0041] And the deviation value ratio of the maximum deviation value of the light reception amount at the adjacent distribution positions corresponding to the solar lamp and the deviation value of the lighting duration deviation value of the solar lamp at the corresponding distribution positions, and the ratio of the peak value of the continuous duration of the lighting supplied by the stored power of the solar lamp to the floating span corresponding value of the average lighting intensity of the lighting coverage area supplied by the real-time solar energy power generation are respectively marked as non-single environment satisfaction information and single environment satisfaction information, and are respectively compared with the deviation value ratio threshold and the peak span ratio threshold:

[0042] If the deviation value ratio of the maximum deviation value of the light reception amount at the adjacent distribution positions corresponding to the solar lamp and the deviation value of the lighting duration deviation value of the solar lamp at the corresponding distribution positions exceeds the deviation value ratio threshold, it is inferred that the solar lamp is greatly affected by the environment in the non-single lamp usage scenario, and it is impossible to collect light and supply power for lighting according to the environment, resulting in a decrease in the lighting efficiency of the non-single lamp. A non-single lighting abnormal signal is generated and sent to the scene side and then transferred to the control center. After receiving the non-single lighting abnormal signal, the control center conducts operation control on the current non-single solar lamp, classifies the specifications of the solar lamp according to the lighting requirements of the real-time distribution position. The preferred parameter of the specification is the real-time rated stored power of the solar lamp. After distribution, the stored power of multiple lamps is shared according to the requirements of the real-time distribution position, that is, adjacent or similar lamps are connected by wires to ensure that the lamps between high demand and low demand can share power, meeting the regional lighting while reducing the cost brought by power storage.

[0043] If the ratio of the maximum deviation value of the light reception amount of the solar lamp corresponding to the adjacent distribution positions to the deviation value of the lighting duration of the solar lamp corresponding to the distribution positions does not exceed the deviation ratio threshold, it is inferred that the solar lamp is less affected by the environment in the non-single lamp usage scenario. A non-single lighting normal signal is generated and sent to the scenario end and then transferred to the control center. After receiving the non-single lighting normal signal, the control center makes an advance plan for the current operating time of the solar lamp and the sunny time of the weather.

[0044] If the ratio of the peak duration of the lighting supplied by the electricity stored in the solar lamp to the corresponding value ratio of the floating span of the average lighting intensity of the lighting coverage area supplied by the real-time solar power generation exceeds the peak span ratio threshold, it is inferred that the single operation scenario of the solar lamp is satisfied. A single lighting normal signal is generated and sent to the scenario end and then transferred to the control center. After receiving the single lighting normal signal, the control center monitors the current remaining power of the solar lamp and supplies other lamps when needed.

[0045] If the ratio of the peak duration of the lighting supplied by the electricity stored in the solar lamp to the corresponding value ratio of the floating span of the average lighting intensity of the lighting coverage area supplied by the real-time solar power generation does not exceed the peak span ratio threshold, it is inferred that the single operation scenario of the solar lamp is not satisfied. A single lighting abnormal signal is generated and sent to the scenario end and then transferred to the control center. After receiving the single lighting abnormal signal, the control center moves the current real-time position of the solar lamp and selects a point with better lighting without affecting the area lighting, and at the same time increases the energy storage space of the solar lamp.

[0046] When both a single lighting normal signal and a non-single lighting normal signal are generated, the scenario end determines that the direct environmental impact detection is qualified and transfers it to the control center.

[0047] At the same time, an environmental indirect impact detection signal is generated and sent to the environmental indirect impact detection unit. After receiving the environmental indirect impact detection signal, the environmental indirect impact detection unit conducts an environmental indirect impact detection on the solar lamp usage scenario, and infers whether there is a lighting impact on the current solar lamp through the indirect impact of the usage scenario, so as to promptly rectify and improve the usage efficiency of the solar lamp, reduce the environmental impact on the solar lamp, and promptly adjust to minimize the environmental indirect impact.

[0048] Obtain the corresponding numerical ratio of the maximum continuous time of the real-time power storage space floating span and the lighting area supply duration of the solar lamp during the temperature reciprocating floating stage in the current usage scenario, where the maximum continuous time is expressed as the maximum continuous time that the lighting can be continuously supplied after the corresponding rated time is reached when the power in the storage space of the solar lamp in the current lighting area is consumed, and mark the corresponding numerical ratio of the real-time power storage space floating span and the maximum continuous time of the lighting area supply duration of the solar lamp during the temperature reciprocating floating stage in the current usage scenario as supply time data;

[0049] Obtain the overlapping duration of the time periods of the temperature reciprocating floating stage and the lighting brightness average reciprocating floating stage in the lighting area in the current usage scenario, and mark the overlapping duration of the time periods of the temperature reciprocating floating stage and the lighting brightness average reciprocating floating stage in the lighting area in the current usage scenario as influence time data;

[0050] And compare the supply time data and the influence time data with the span time ratio threshold and the time period overlapping duration threshold respectively:

[0051] If the supply time data exceeds the span time ratio threshold, or the influence time data exceeds the time period overlapping duration threshold, it is inferred that the environmental indirect impact detection is abnormal, generate an indirect high impact signal and send the indirect high impact signal to the scenario end and send it to the control center. After receiving the indirect high impact signal, the control center conducts usage regulation on the solar lamp. During the temperature floating stage, control the real-time power storage space of the solar lamp. When the space decreases, control the remaining power of the power storage space of the solar lamp, that is, preferentially use the power generated by light, and supply power with the current ambient light intensity when the light intensity decreases and conduct energy storage supply when it is lacking. At the same time, ensure the remaining power to avoid power exhaustion and subsequent decline in the power storage performance due to the decrease in the total charging power, and reasonably plan the power storage time and power consumption time;

[0052] If the supply time data does not exceed the span time ratio threshold and the influence time data does not exceed the time period overlapping duration threshold, it is inferred that the environmental indirect impact detection is normal, generate an indirect low impact signal and send the indirect low impact signal to the scenario end and send it to the control center; Embodiment

[0053] Please refer to Figure 3 As shown, the control center is communicatively connected to the device end with a charge and discharge detection unit and a usage quality prediction unit; while ensuring that the usage scenario is qualified, analyze and detect the device itself to ensure that the device operation efficiency can be used to regulate the device in a timely manner and improve the control efficiency of the solar lamp;

[0054] The control center generates a device detection instruction and sends it to the device side. After receiving the device detection instruction, the device side generates a charge-discharge detection signal and sends the charge-discharge detection signal to the charge-discharge detection unit. After receiving the charge-discharge detection signal, the charge-discharge detection unit detects the photovoltaic charge-discharge of the solar lamp, and infers whether there is a risk of the current solar lamp having a decline in operating performance or the operating performance not being fully reflected through the charge-discharge execution detection. Through the charge-discharge detection, the photovoltaic energy storage performance and functional performance of the solar lamp are fundamentally guaranteed, reflecting the most important energy-saving effect of the solar lamp, improving the usage efficiency of the solar lamp, meeting the lighting requirements of the lighting area while ensuring the energy-saving performance;

[0055] Obtain the duration of the continuous non-fluctuation of the electric energy conversion rate during the photovoltaic power generation stage of the solar lamp, and mark the duration of the continuous non-fluctuation of the electric energy conversion rate during the photovoltaic power generation stage of the solar lamp as WFC;

[0056] Obtain the cumulative value of the supply loss of the converted electric energy and the storage loss of the remaining converted electric energy during the photovoltaic power generation stage of the solar lamp, and mark the cumulative value of the supply loss of the converted electric energy and the storage loss of the remaining converted electric energy during the photovoltaic power generation stage of the solar lamp as LEZ;

[0057] When there is no photovoltaic power generation in the solar lamp, obtain the deviation value of the peak supply adjustment speed corresponding to different remaining real-time stored electric quantities when the demand electric quantity of the current usage scenario fluctuates, and mark the deviation value of the peak supply adjustment speed corresponding to different remaining real-time stored electric quantities when the demand electric quantity of the current usage scenario fluctuates as FPC;

[0058] Unify the above collected data and mark it as charge-discharge detection information, and substitute it into the formula to obtain the charge-discharge detection coefficient in the usage scenario of the solar lamp. The formula is: , where fw1, fw2, and fw3 are all preset proportionality coefficients, and the preset proportionality coefficients represent the parameters set by those skilled in the art for dimensionless after collecting various data, and the values are estimated based on multiple calculations by those skilled in the art; G is the charge-discharge detection coefficient, t is the time error value when the lamp pauses lighting, α is an error correction factor, and its value is 0.969;

[0059] Compare the charge-discharge detection coefficient in the usage scenario of the solar lamp with the detection coefficient threshold:

[0060] If the charge and discharge detection coefficient exceeds the detection coefficient threshold in the use scenario of the solar lamp, it is inferred that the charge and discharge detection of the solar lamp is abnormal, and a charge and discharge detection abnormality signal is generated and sent to the device end and forwarded to the control center. After receiving the charge and discharge detection abnormality signal, the control center regulates the charge and discharge of the solar lamp to improve the use efficiency of the solar lamp, traces the real-time power transmission loss and rectifies it according to the components involved in the traceability, and debugs the power transmission speed control performance to avoid a decrease in the speed control performance corresponding to a decrease in the remaining storage capacity;

[0061] If the charge and discharge detection coefficient does not exceed the detection coefficient threshold in the solar lamp usage scenario, it is inferred that the charge and discharge detection of the solar lamp is normal, and a charge and discharge detection normal signal is generated and sent to the device end and forwarded to the control center;

[0062] The device generates a usage quality prediction signal and sends the usage quality prediction signal to the usage quality prediction unit. After receiving the usage quality prediction signal, the usage quality prediction unit predicts the usage quality of the solar lamp. Through the usage quality prediction, it is inferred whether the current solar lamp has a risk of failure, so as to make performance predictions in time through data collection and analysis, effectively avoid the failure probability of the solar lamp, reduce the impact of the failure of the solar lamp, and ensure that the lighting needs of the lighting area are met;

[0063] The total amount of real-time conversion supply and real-time conversion storage corresponding to the total amount of the solar lighting energy conversion process is obtained, and the demand increase span of the corresponding conversion supply under the same power operation scenario in the solar lighting energy conversion process is obtained. The total amount of real-time conversion supply and real-time conversion storage corresponding to the total amount of the solar lighting energy conversion process and the demand increase span of the corresponding conversion supply under the same power operation scenario in the solar lighting energy conversion process are marked as conversion parameters and supply parameters, respectively, and compared with the cumulative reduction span threshold and the demand increase span threshold, respectively:

[0064] If the total amount of real-time conversion supply and real-time conversion storage corresponding to the total amount of the solar light energy conversion process exceeds the cumulative reduction span threshold, or the demand increase span of the corresponding conversion supply under the same power operation scenario during the solar light energy conversion process exceeds the demand increase span threshold, it is inferred that the solar light usage quality prediction is abnormal, and a predicted fault signal is generated and sent to the device end and forwarded to the control center. After receiving the predicted fault signal, the control center maintains and replaces the internal components of the solar light for wear, and monitors and adjusts the corresponding lighting conversion efficiency of the photovoltaic solar panel at the same time;

[0065] If the cumulative reduction span of the total corresponding to the real-time conversion supply amount and the real-time conversion storage amount during the solar energy light energy conversion process does not exceed the cumulative reduction span threshold, and the demand increase span of the corresponding conversion supply amount in the same power operation scenario during the solar energy light energy conversion process does not exceed the demand increase span threshold, it is inferred that the prediction of the usage quality of the solar lamp is normal, a prediction fault-free signal is generated and sent to the device end and transferred to the control center.

[0066] The above formulas are all obtained by collecting a large amount of data for software simulation and selecting a formula close to the true value. The coefficients in the formula are set by those skilled in the art according to the actual situation.

[0067] When the present invention is in use, the environmental direct impact detection unit directly detects the environmental impact on the usage scenario of the solar lamp, collects non-single environment satisfaction information and single environment satisfaction information, and infers whether the environmental direct impact corresponding to the single lamp usage scenario and the non-single lamp usage scenario is normal according to the information comparison; the environmental indirect impact detection unit is used to collect supply time data and impact time data, and detect whether the environmental indirect impact is abnormal according to the data comparison; the charge and discharge detection unit is used to collect charge and discharge detection information, and calculate and obtain the charge and discharge detection coefficient, and infer whether the charge and discharge detection is abnormal according to the coefficient comparison; the usage quality prediction unit collects conversion parameters and supply parameters, and analyzes and infers whether the prediction of the usage quality of the solar lamp is abnormal according to the parameters.

[0068] The preferred embodiments of the present invention disclosed above are only used to help illustrate the present invention. The preferred embodiments do not elaborate on all details, nor do they limit the present invention to the specific embodiments. Obviously, many modifications and variations can be made according to the content of this specification. These embodiments are selected and specifically described in this specification to better explain the principle and practical application of the present invention, so that those skilled in the art in the relevant technical field can understand and utilize the present invention well. The present invention is only limited by the claims and their full scope and equivalents.

Claims

1. A portable solar lamp control system for outdoor use, including a control center, characterized in that, The control center is communicatively connected to the scenario end and the device end; The scenario end is communicatively connected to: The direct environmental impact detection unit is used to detect the direct environmental impact of the solar lamp usage scenario, collect non-single environment satisfaction information and single environment satisfaction information, and infer whether the direct environmental impact corresponding to the single lamp usage scenario and the non-single lamp usage scenario is normal based on information comparison; if so, continue monitoring, otherwise, rectify; the non-single environment satisfaction information and the single environment satisfaction information are respectively the ratio of the maximum deviation value of the light reception amount at the adjacent distribution positions corresponding to the solar lamp to the deviation value ratio of the lighting duration deviation value at the corresponding distribution positions, and the ratio of the peak value of the continuous duration of the lighting supplied by the stored power of the solar lamp to the floating span of the average lighting intensity in the lighting area covered by the real-time solar power generation for lighting; The indirect environmental impact detection unit is used to collect supply time data and impact time data, and infer whether the indirect environmental impact detection is abnormal based on data comparison; if so, perform regulation, otherwise, continue monitoring; the supply time data and the impact time data are respectively the ratio of the floating span of the real-time power storage space of the solar lamp corresponding to the temperature reciprocating floating stage in the current usage scenario to the maximum continuous time of the lighting supply duration in the lighting area, and the overlapping duration of the time periods of the temperature reciprocating floating stage and the average lighting brightness reciprocating floating stage in the lighting area in the current usage scenario; The device end is communicatively connected to: The charge and discharge detection unit is used to collect charge and discharge detection information, and calculate and obtain the charge and discharge detection coefficient, and infer whether the charge and discharge detection is abnormal based on coefficient comparison; if so, perform charge and discharge regulation, otherwise, perform continuous detection; the collected charge and discharge detection information includes the non-floating continuous duration of the power conversion rate during the photovoltaic power generation stage of the solar lamp, the cumulative value of the power supply loss of the converted power and the storage loss of the remaining converted power during the photovoltaic power generation stage of the solar lamp, and the deviation value of the peak value of the supply adjustment speed corresponding to different remaining real-time stored power when the required power of the current usage scenario fluctuates; substitute into the formula to obtain the charge and discharge detection coefficient under the solar lamp usage scenario; The usage quality prediction unit is used to collect conversion parameters and supply parameters, and infer whether the prediction of the usage quality of the solar lamp is abnormal based on parameter analysis; if so, perform shutdown and rectification, otherwise, continue lighting operation.

2. The outdoor portable solar lamp control system according to claim 1, characterized in that If the non-single environment satisfaction information exceeds the deviation ratio threshold, a non-single lighting abnormal signal is generated; If the non-single environment satisfaction information does not exceed the deviation ratio threshold, a non-single lighting normal signal is generated; If the single environment satisfaction information exceeds the peak span ratio threshold, a single lighting normal signal is generated; If the single environment satisfaction information does not exceed the peak span ratio threshold, a single lighting abnormal signal is generated.

3. The outdoor portable solar lamp control system according to claim 1, characterized in that If the supply time data exceeds the span time ratio threshold, or the impact time data exceeds the time period overlapping duration threshold, an indirect high impact signal is generated.

4. The outdoor portable solar lamp control system according to claim 1, wherein If the supply time data does not exceed the span time ratio threshold, and the impact time data does not exceed the time period overlapping duration threshold, an indirect low impact signal is generated.

5. The outdoor portable solar lamp control system according to claim 1, characterized in that, If the charge and discharge detection coefficient exceeds the detection coefficient threshold, a charge and discharge detection abnormal signal is generated; if the charge and discharge detection coefficient does not exceed the detection coefficient threshold, a charge and discharge detection normal signal is generated.

6. The outdoor portable solar lamp control system according to claim 1, characterized in that, The conversion parameter and the supply parameter are respectively the cumulative reduction span corresponding to the total amount of real-time conversion supply and real-time conversion storage during the solar energy conversion process of the solar lamp, and the demand increase span corresponding to the conversion supply under the same power operation scenario during the solar energy conversion process of the solar lamp.

7. The outdoor portable solar lamp control system according to claim 6, characterized in that If the conversion parameter exceeds the cumulative reduction span threshold, or the supply parameter exceeds the demand increase span threshold, a predicted fault signal is generated; if the conversion parameter does not exceed the cumulative reduction span threshold and the supply parameter does not exceed the demand increase span threshold, a predicted fault-free signal is generated.

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