Miniature module based on charging pile street lamp power supply intelligent adjusting technology

Abstract

The invention discloses a micro module based on a charging pile street lamp power supply intelligent adjustment technology, and relates to the technical field of charging pile street lamp power supply intelligent adjustment, and the micro module comprises a charging pile street lamp body, a solar power generation unit, a commercial power supply unit, an energy storage unit, an intelligent power supply management unit, an illumination control unit, a charging pile unit and a safety protection unit. The existing intelligent adjustment technology based on charging pile street lamp power supply generally lacks an efficient energy management mechanism, resulting in the problem of power resource waste or unbalanced distribution and the like. An intelligent power supply management unit and a safety protection unit carry out analysis control. The voltage and current fluctuation is monitored, so that the power supply stability of the power grid is guaranteed, and the energy consumption and loss in the power supply and charging process are reduced; besides, the intelligent management unit can rapidly switch power supply modes under abnormal conditions, so that the stability and the continuity of the system are ensured, and the reliability and the safety of the whole system are greatly improved.

Description

Technical Field

[0001] The present invention relates to the technical field of intelligent regulation of power supply for charging pile street lamps, and in particular to a micro module based on the intelligent regulation technology for power supply for charging pile street lamps. Background Art

[0002] Charging pile street lights are a type of intelligent infrastructure that combines electric vehicle charging and public lighting functions. By integrating charging piles on street light poles and utilizing existing power grid infrastructure, they not only provide regular nighttime lighting, but also provide charging services for electric vehicles. Charging pile street lights can not only reduce dependence on independent charging stations, but also use the low-power consumption period at night for intelligent charging, so as to achieve reasonable allocation of resources and effective use of energy. Power supply intelligent regulation technology is a technology that automatically optimizes power distribution and use by real-time monitoring and analysis of power demand, power supply status and environmental factors. This technology usually integrates sensors, data communications, artificial intelligence and automatic control systems, and can dynamically adjust power supply strategies according to actual load changes, weather conditions, peak power consumption and other factors to improve energy efficiency and system stability.

[0003] There are still several problems with existing intelligent regulation technologies for charging pile street lamp power supply. First, these systems usually lack efficient energy management mechanisms, resulting in waste or uneven distribution of power resources. Second, they are slow to respond to emergencies (such as sudden peak power consumption or equipment failure), affecting the stability and reliability of the overall system. Summary of the invention

[0004] The purpose of the present invention is to solve the problem of lack of efficient energy management mechanism, resulting in waste of power resources or uneven distribution. Secondly, they are slow to respond to emergencies (such as sudden peak power consumption or equipment failure), affecting the stability and reliability of the overall system, and propose a micro module based on intelligent adjustment technology of charging pile street lamp power supply.

[0005] The object of the present invention can be achieved by the following technical solutions: A micromodule based on intelligent power supply adjustment technology for charging pile street lamps, including an intelligent power supply management unit and a safety protection unit;

[0006] The safety protection unit is used to detect the charging pile street lamp body and generate corresponding signals. The specific process is: detect the electrical overload protection and overheat protection to generate current Ln overload signal, voltage Vn overload signal, temperature Rn overheat signal, lightning protection signal, battery overcharge or over discharge abnormal signal;

[0007] The intelligent power supply management unit is used to obtain the charging pile street lamp data of the charging pile street lamp and analyze and manage it; the charging pile street lamp data includes charging and discharging data, environmental data and energy management data; the charging and discharging data is analyzed, and the specific analysis process is: the charging and discharging data is analyzed and calculated to obtain the charging efficiency and the discharging efficiency; the light intensity and lighting demand are calculated to obtain the street lamp brightness value; then the high temperature, low temperature and high humidity environmental data are analyzed to obtain the charging and discharging efficiency after the temperature influence; the energy management data is analyzed to obtain the voltage fluctuation value and the current fluctuation value.

[0008] As a preferred embodiment of the present invention, the charging pile street lamp body includes a charging pile street lamp body, an LED lamp bead module A and a charging pile module B; wherein the LED lamp bead module A is fixedly installed on the top of the semi-hollow inner side of the charging pile street lamp body, the charging pile module B is fixedly installed on the inner side of the charging pile street lamp body, and the charging pile module B operation page is fixedly installed on the outer side of the charging pile street lamp body, the LED lamp bead module A is composed of a plurality of LED lamp beads, and the charging pile module B operation page integrates an NFC identification reading device, an operation display panel, a charging control button and a power supply interface, and the NFC identification reading device, the operation display panel, the charging control button and the power supply interface are all fixedly installed on the charging pile module B operation page.

[0009] As a preferred embodiment of the present invention, it also includes a solar power generation unit, a mains power supply unit, an energy storage unit, a lighting control unit and a charging pile unit;

[0010] The solar power generation unit converts sunlight into electrical energy through solar panels, and stores it in the energy storage unit; the AC power supply unit connects the charging pile street lights to the AC power and obtains electricity from the AC power to provide lighting and charging; the lighting control unit is used for lighting; and the charging pile unit is used for charging.

[0011] As a preferred embodiment of the present invention, the specific process of detecting the electrical overload protection and the overheat protection is as follows:

[0012] The current, voltage and temperature in each unit are obtained through corresponding sensors, marked, and then the marked data are numbered to distinguish; the current L1, voltage V1 and temperature R1 in the unit and their corresponding preset weight factors and their corresponding thresholds are obtained, substituted into the three-dimensional coordinate model to output their corresponding volumes, and the corresponding values ​​of their corresponding volumes are compared with the corresponding thresholds in DRn; if the corresponding value of the volume corresponding to the current Ln is greater than the threshold value Lny, a current Ln overload signal is generated, and if the corresponding value of the volume corresponding to the voltage Vn is greater than the threshold value Vny, a voltage Vn overload signal is generated; if the corresponding value of the volume corresponding to the temperature Rn is greater than the threshold value Rny, a temperature Rn overheat signal is generated.

[0013] Continuously monitor lightning activity through lightning protection devices or surge protectors. When a momentary high voltage exceeding a corresponding threshold is detected, it is determined to be a lightning strike or surge, and a lightning protection signal is generated;

[0014] The battery management module monitors the battery voltage, current and temperature in real time through the corresponding sensors. When the real-time monitored battery voltage exceeds the safe range, a battery overcharge or over-discharge abnormal signal is generated.

[0015] As a preferred embodiment of the present invention, the specific process of calculating the charging efficiency and the discharging efficiency by analyzing the charging and discharging data is as follows: The charging efficiency ηc is calculated, where E1 is the actual stored electric energy, E2 is the total input electric energy, P1(t) is the charging power of the battery at time t, and P2(t) is the charging power input at time t; c=1 or 2; when c=1, ηc is the process of the solar power generation unit charging the energy storage unit; when c=2, ηc is the process of the mains power supply unit charging the energy storage unit; similarly, the discharge efficiency ηd is calculated, and the discharge efficiency ηd is obtained by the formula, where; d=3, 4, 5, 6, when d=3, ηd is the process of the mains power supply unit supplying power to the lighting control unit; when d=4, ηd is the process of the mains power supply unit supplying power to the charging pile unit; when d=5, ηd is the process of the energy storage unit supplying power to the lighting control unit; when d=6, ηd is the process of the energy storage unit supplying power to the energy storage unit.

[0016] As a preferred embodiment of the present invention, the specific process of calculating the street lamp brightness value based on the light intensity and lighting demand is as follows:

[0017] Obtain the real-time light intensity It, and substitute the obtained light intensity It into the preset street lamp brightness formula B(t): B(t)=f(It(t))=Bmax-k×It(t) to output the street lamp brightness value Bt; Bmax is the maximum brightness of the street lamp, and k is the adjustment coefficient; match the street lamp brightness value Bt with the preset lighting brightness intervals of several charging pile street lamps. If the street lamp brightness value Bt belongs to one of the preset lighting brightness intervals of several charging pile street lamps, the lighting brightness of the charging pile street lamp is controlled to be consistent with the lighting brightness in the corresponding interval; analyze the relationship between environmental factors and charging efficiency ηc or discharge efficiency ηd by establishing a regression model, which is: ηow=ηo0+α×(w-w0) to output the charging and discharging efficiency ηow after the influence of temperature, o=c or d; ηc0 is the charging and discharging efficiency at the reference temperature, w0 is the reference temperature, and α is the temperature coefficient.

[0018] As a preferred implementation of the present invention, the specific process of analyzing the energy management to obtain the voltage fluctuation value and the current fluctuation value is:

[0019] Obtain the fluctuation of urban power supply voltage and power supply current, and evaluate the urban power supply stability of the power grid; first, obtain the power supply voltage mean, power supply current mean, power supply voltage variance, and power supply current variance by calculating the mean and variance of the obtained power supply voltage and power supply current; then obtain the voltage fluctuation range and current fluctuation range by calculating the maximum and minimum values ​​of the power supply voltage and current, and obtain the voltage fluctuation value and current fluctuation value by calculation; match the voltage fluctuation value and current fluctuation value with their corresponding preset fluctuation intervals respectively, if the voltage fluctuation value and the current fluctuation value both belong to their corresponding preset fluctuation intervals, generate a fluctuation abnormality signal, if one of the voltage fluctuation value and the current fluctuation value belongs to their corresponding preset fluctuation intervals, supply power to the lighting control unit and the charging pile unit through the energy storage unit; specifically: if the energy storage If the unit power is in interval one, the energy storage unit directly supplies power to the lighting control unit and the charging pile unit; if the energy storage unit power is in interval two, the AC power supply unit and the energy storage unit supply power to the lighting control unit and the charging pile unit; if the energy storage unit power is in interval three, the AC power supply unit and the solar power generation unit charge the energy storage unit, and the energy storage unit supplies power to the lighting control unit and the charging pile unit; if the energy storage unit power is in interval four, the charging efficiency from the AC power supply unit and the solar power generation unit to the energy storage unit is calculated to obtain the total charging efficiency XC, if XC>0, the energy storage unit supplies power to the lighting control unit and the charging pile unit, otherwise, if XC≦0, and XC1>0, the energy storage unit supplies power to the charging pile unit; when XC1≦0, the energy storage unit stops supplying power.

[0020] Compared with the prior art, the present invention has the following beneficial effects:

[0021] 1. The present invention integrates a variety of energy supply and intelligent management technologies through a micromodule system; through dual power supply of solar energy and city electricity, as well as the flexible use of energy storage units, the system can efficiently realize lighting and charging functions; the intelligent power supply management and safety protection unit can monitor various data in real time to prevent electrical overload, lightning strike, power surge, overheating, battery overcharge and over discharge, etc., greatly improving the safety and reliability of the equipment. In addition, the system adopts active adjustment and multiple protection measures to effectively extend the service life of the equipment, while promoting energy conservation and environmental protection.

[0022] 2. The present invention realizes the efficient and intelligent operation of the charging pile street lamp system through comprehensive analysis and management of charging and discharging data, environmental data and energy management data; and dynamically adjusts the lighting brightness according to the real-time light intensity and environmental conditions to improve energy utilization efficiency; by calculating and optimizing the charging and discharging efficiency, the optimal performance and long life of the battery are ensured; at the same time, by monitoring the voltage and current fluctuations, the stability of the power supply of the power grid is guaranteed, and the energy consumption and loss in the power supply and charging process are reduced; in addition, the intelligent management unit can also quickly switch the power supply mode under abnormal circumstances to ensure the stability and continuity of the system, which greatly improves the reliability and safety of the overall system. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] In order to facilitate understanding by those skilled in the art, the present invention is further described below with reference to the accompanying drawings.

[0024] Figure 1 It is a principle block diagram of the present invention;

[0025] Figure 2 This is a schematic diagram of the charging pile street lamp body of the present invention;

[0026] Figure 3 This is a schematic diagram of the LED lamp bead module of the charging pile street lamp of the present invention;

[0027] Figure 4 This is a schematic diagram of a charging pile module for a charging pile street lamp of the present invention;

[0028] Figure 5 It is a schematic diagram of the DRn electrical thermal model of the present invention;

[0029] Description of the drawings: 1. Charging pile street lamp body, 2. LED lamp beads, 3. NFC identification reading device, 4. Operation display panel, 5. Electric control button, 6. Power supply interface, A. LED lamp bead module, B charging pile module. DETAILED DESCRIPTION

[0030] The technical solution of the present invention will be clearly and completely described below in conjunction with the embodiments. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0031] It should be understood that the terms "include" and "comprising" used in the specification and claims of the present disclosure indicate the presence of described features, integers, steps, operations, elements and / or components, but do not exclude the presence or addition of one or more other features, integers, steps, operations, elements, components and / or collections thereof.

[0032] It should also be understood that the terms used in this disclosure are only for the purpose of describing specific embodiments and are not intended to limit the disclosure. As used in this disclosure and claims, the singular forms of "a", "an", and "the" are intended to include the plural forms unless the context clearly indicates otherwise. It should also be further understood that the term "and / or" used in this disclosure and claims refers to any combination of one or more of the associated listed items and all possible combinations, including these combinations.

[0033] See also Figure 1 As shown, a micromodule based on intelligent adjustment technology for power supply of charging pile street lamps includes a charging pile street lamp body, a solar power generation unit, a mains power supply unit, an energy storage unit, an intelligent power supply management unit, a lighting control unit, a charging pile unit and a safety protection unit;

[0034] See also Figure 2 , 3 As shown in , 4, the charging pile street lamp body includes a charging pile street lamp body 1, an LED lamp bead module A and a charging pile module B; wherein the LED lamp bead module A is fixedly mounted on the top of the semi-hollow inner side of the charging pile street lamp body 1, the charging pile module B is fixedly mounted on the inner side of the charging pile street lamp body 1, and the charging pile module B operation page is fixedly mounted on the outer side of the charging pile street lamp body 1, the LED lamp bead module A is composed of a plurality of LED lamp beads 2, and the charging pile module B operation page is integrated with an NFC identification reading device 3, an operation display panel 4, a charging control button 5 and a power-taking interface 6, and the NFC identification reading device 3, the operation display panel 4, the charging control button 5 and the power-taking interface 6 are all fixedly mounted on the charging pile module B operation page;

[0035] The solar power generation unit converts sunlight into electrical energy through solar panels and stores it in the energy storage unit; the mains power supply unit and the charging pile street lamp obtain electricity from the mains through the mains access equipment to provide lighting and charging; the lighting control unit performs lighting; the charging pile unit performs charging;

[0036] The safety protection unit is used to protect the charging pile street lamp body from electrical overload, lightning strike and surge, overheating and battery overcharge, over discharge and other potential threats. The specific process is as follows:

[0037] See also Figure 5As shown, the electrical overload protection and overheating protection are detected, and the current, voltage and temperature in each unit of the corresponding sensor are detected; if the current, voltage and temperature data are collected in the solar power generation unit, they are marked as solar power generation electrical thermal data; if the current, voltage and temperature data are collected in the mains power supply unit, they are marked as mains power gas thermal data; if the current, voltage and temperature data are collected in the energy storage unit, they are marked as energy storage electrical thermal data; and so on; the lighting electrical thermal data, power supply electrical thermal data and charging electrical thermal data are obtained, and they are numbered and distinguished. The Yangfa electrical thermal data, the city power gas thermal data, the energy storage electrical thermal data, the lighting electrical thermal data, the power supply electrical thermal data and the charging electrical thermal data are numbered DR1, DR2, DR3, DR4, DR5 and DR6 respectively; if the collected DRn is DR1, the current size L1, the voltage size V1 and the temperature size R1 in the acquisition unit and the corresponding preset weight factors and the corresponding threshold values ​​are obtained, and the corresponding preset weight factors are L'1, V'1 and R'1 respectively, and the corresponding threshold values ​​are L1y, V1y and R1y respectively; n = 1, 2, 3, 4, 5, 6; and the collected DRn is DR1. The DRn and DRn of the set each correspond to a preset weight factor and a threshold value, and are substituted into the three-dimensional coordinate system to obtain the DRn electrical thermal model. The preset weight factors corresponding to DRn are substituted into the three-dimensional coordinate system X and Y axes to obtain the corresponding plane areas according to a certain ratio, and the corresponding plane areas do not overlap, and then the area of ​​the corresponding plane area is calculated; Ln, Vn and Rn in DRn are substituted into the Z axis according to a certain ratio to obtain LZn, VZn and RZn, and they are multiplied by the area of ​​the corresponding plane area to obtain the corresponding volume, and the corresponding number of the corresponding volume is converted into The value is compared with the corresponding threshold value in DRn; if the corresponding value of the current Ln corresponding to the volume is greater than the threshold value Lny, a current Ln overload signal is generated, and the controller immediately triggers an overload protection device, such as a circuit breaker or a fuse, to quickly cut off the circuit to prevent overheating or equipment damage; if the corresponding value of the voltage Vn corresponding to the volume is greater than the threshold value Vny, a voltage Vn overload signal is generated, and the controller immediately triggers the overload protection device; if the corresponding value of the temperature Rn corresponding to the volume is greater than the threshold value Rny, a temperature Rn overheat signal is generated, and active cooling measures (such as reducing LED brightness and charging power) are initiated;

[0038] Similarly, for safety protection against lightning strikes and surges, lightning activities are continuously monitored directly through lightning protection devices or surge protectors (such as lightning rods). When an instantaneous high voltage exceeding the corresponding threshold is detected, it is determined to be a lightning strike or surge, and a lightning protection signal is generated. The lightning arrester or surge protector performs the corresponding operation within nanoseconds. For safety protection against battery overcharge and over-discharge, the battery management module monitors the battery voltage, current and temperature in real time through the corresponding sensors. When the real-time monitored battery voltage exceeds the safety range (overcharge or over-discharge), a battery overcharge or over-discharge abnormality signal is generated, and the charging or discharging current is immediately limited, or the charging or discharging process is completely stopped.

[0039] The intelligent power supply management unit is used to obtain the charging pile street lamp data of the charging pile street lamp for analysis and management; the charging pile street lamp data includes charging and discharging data, environmental data and energy management data, among which the charging and discharging data includes the number of charging and discharging times, charging time, discharging time, discharging efficiency, charging efficiency, charging power and discharging power, etc., and the environmental data includes light intensity, temperature, humidity, wind speed, rainfall, sunrise and sunset time and seasonal changes, etc.; the energy management data includes power supply voltage and power supply current, etc.;

[0040] The charging and discharging is analyzed. The specific process is as follows: The charging process is the process in which the solar power generation unit and the mains power supply unit charge the energy storage unit; the discharging process is the process in which the mains power supply unit and the energy storage unit supply power to the lighting control unit and the charging pile unit; the charging efficiency ηc is calculated by the formula Calculated, where E1 is the actual stored electrical energy, E2 is the total input electrical energy, P1(t) is the charging power of the battery at time t, and P2(t) is the charging power input at time t; c = 1, 2; when c = 1, ηc is the process of the solar power generation unit charging the energy storage unit; when c = 2, ηc is the process of the mains power supply unit charging the energy storage unit; similarly, the discharge efficiency ηd is calculated: by formula Calculated, where E1 is the energy actually transmitted to the load, E2 is the total energy released by the battery, and P3(t) is the power consumption of the load at time t; d=3, 4, 5, 6, when d=3, ηd is the process of the mains power supply unit supplying power to the lighting control unit; when d=4, ηd is the process of the mains power supply unit supplying power to the charging pile unit; when d=5, ηd is the process of the energy storage unit supplying power to the lighting control unit; when d=6, ηd is the process of the energy storage unit supplying power to the energy storage unit;

[0041] Analyze the environment. The specific process is as follows: Analyze the light intensity and lighting demand: obtain the real-time light intensity It, and substitute the obtained light intensity It into the preset street light brightness formula B(t): B(t)=f(It(t))=Bmax-k×It(t) Output the street light brightness value Bt; Bmax is the maximum brightness of the street light, k is the adjustment coefficient, which is set according to actual needs; match the street light brightness value Bt with the lighting brightness range of several preset charging pile street lights. If the street light brightness value Bt belongs to the lighting range of several preset charging pile street lights, If the charging pile street lamp is in a certain interval in the brightness interval, the brightness of the charging pile street lamp is controlled to be consistent with the brightness in the corresponding interval; and considering that environmental factors such as high temperature, low temperature, high humidity, and strong wind will affect the charging efficiency and battery performance, the relationship between these environmental factors and the charging efficiency (ηc) or the discharging efficiency (ηd) is analyzed by establishing a regression model: ηow=ηo0+α×(w-w0) Output the charging and discharging efficiency ηow after the influence of temperature, o=c or d; ηc0 is the charging and discharging efficiency at the reference temperature, w0 is the reference temperature, and α is the temperature coefficient;

[0042] Analyze energy management, obtain the fluctuation of urban power supply voltage and power supply current, and evaluate the urban power supply stability of the power grid; first calculate the mean and variance of the obtained power supply voltage and power supply current to obtain the power supply voltage mean Vj, power supply current mean Ij and power supply voltage variance σ 2 V , supply current σ 2 I Variance; then by calculating the maximum and minimum values ​​of the supply voltage and current, the voltage fluctuation range ΔV and current fluctuation range ΔI are obtained, and the formula Output voltage fluctuation value Vw, similarly, through the formula Output current fluctuation value Iw, where Vs and Is are the supply voltage and supply current respectively, and a1, a2, a3 and a4 are preset weight factors;

[0043] The voltage fluctuation value Vw and the current fluctuation value Iw are matched with their respective corresponding preset fluctuation intervals. If both the voltage fluctuation value Vw and the current fluctuation value Iw belong to their respective preset fluctuation intervals, a fluctuation abnormality signal is generated, and power supply and charging are stopped immediately; if one of the voltage fluctuation value Vw and the current fluctuation value Iw belongs to their respective preset fluctuation intervals, the lighting control unit and the charging pile unit are powered by the energy storage unit; specifically: if the energy storage unit power is interval one (the energy storage unit power is interval one (100%-90%), interval two (89%-60%), interval three (59%-30%) and interval four (29%-1%)), the lighting control unit and the charging pile unit are powered directly by the energy storage unit; if the energy storage unit power is interval two, the AC power supply unit and The energy storage unit supplies power to the lighting control unit and the charging pile unit; if the power level of the energy storage unit is interval three, the mains power supply unit and the solar power generation unit charge the energy storage unit, and the energy storage unit supplies power to the lighting control unit and the charging pile unit; if the power level of the energy storage unit is interval four, the charging efficiency from the mains power supply unit and the solar power generation unit to the energy storage unit is calculated as follows: the total charging efficiency value XC is output by the formula XC=η1×κ1+η2×κ2-η5×κ3-η6×κ4, if XC>0, the energy storage unit supplies power to the lighting control unit and the charging pile unit, otherwise, if XC≦0, XC is added with η5×κ3 to obtain a total charging efficiency value of -XC1; when XC1>0, the energy storage unit supplies power to the charging pile unit; when XC1≦0, the energy storage unit stops supplying power.

[0044] The preferred embodiments of the present invention disclosed above are only used to help explain the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to only specific implementation methods. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. A micromodule based on intelligent power supply adjustment technology for charging pile street lamps, comprising an intelligent power supply management unit and a safety protection unit; characterized in that: The safety protection unit is used to detect the charging pile street lamp body and generate corresponding signals. The specific process is: detect the electrical overload protection and overheat protection to generate current Ln overload signal, voltage Vn overload signal, temperature Rn overheat signal, lightning protection signal, battery overcharge or over discharge abnormal signal; The intelligent power supply management unit is used to obtain the charging pile street lamp data of the charging pile street lamp and analyze it; the charging pile street lamp data includes charging and discharging data, environmental data and energy management data; the specific analysis process is: analyzing and calculating the charging efficiency and discharging efficiency of the charging and discharging data; calculating the light intensity and lighting demand to obtain the street lamp brightness value; then analyzing the high temperature, low temperature and high humidity environmental data to obtain the charging and discharging efficiency after the temperature influence; analyzing the energy management data to obtain the voltage fluctuation value and the current fluctuation value.

2. According to claim 1, a micromodule based on intelligent adjustment technology for charging pile street lamp power supply is characterized in that: The charging pile street lamp body comprises a charging pile street lamp body (1), an LED lamp bead module A and a charging pile module B; wherein the LED lamp bead module A is fixedly mounted on the top of the semi-hollow inner side of the charging pile street lamp body (1), the charging pile module B is fixedly mounted on the inner side of the charging pile street lamp body (1), the charging pile module B operation page is fixedly mounted on the outer side of the charging pile street lamp body (1), the LED lamp bead module (A) is composed of a plurality of LED lamp beads (2), the charging pile module B operation page is integrated with an NFC identification reading device (3), an operation display panel (4), a charging control button (5) and a power supply interface (6), and the NFC identification reading device (3), the operation display panel (4), the charging control button (5) and the power supply interface (6) are all fixedly mounted on the charging pile module B operation page.

3. According to claim 1, a micromodule based on intelligent adjustment technology for power supply of charging pile street lamps is characterized in that: It also includes a solar power generation unit, a mains power supply unit, an energy storage unit, a lighting control unit and a charging pile unit; The solar power generation unit converts sunlight into electrical energy through solar panels, and stores it in the energy storage unit; the AC power supply unit connects the charging pile street lights to the AC power and obtains electricity from the AC power to provide lighting and charging; the lighting control unit is used for lighting; and the charging pile unit is used for charging.

4. According to claim 1, a micromodule based on intelligent adjustment technology for charging pile street lamp power supply is characterized in that: The specific process of detecting the electrical overload protection and overheat protection is as follows: The current, voltage and temperature in each unit are obtained through the corresponding sensors, and are marked, and then the marked data are numbered and distinguished; the current L1, voltage V1 and temperature R1 in the unit and the corresponding preset weight factors and the corresponding thresholds are obtained, and the corresponding volumes are output in the three-dimensional coordinate model, and the corresponding values ​​of the corresponding volumes are compared with the corresponding thresholds in DRn; If the corresponding volume value of current Ln is greater than the threshold Lny, a current Ln overload signal is generated; if the corresponding volume value of voltage Vn is greater than the threshold Vny, a voltage Vn overload signal is generated; if the corresponding volume value of temperature Rn is greater than the threshold Rny, a temperature Rn overheat signal is generated. Continuously monitor lightning activity through lightning protection devices or surge protectors. When a momentary high voltage exceeding a corresponding threshold is detected, it is determined to be a lightning strike or surge, and a lightning protection signal is generated; The battery management module monitors the battery voltage, current and temperature in real time through the corresponding sensors. When the real-time monitored battery voltage exceeds the safe range, a battery overcharge or over-discharge abnormal signal is generated.

5. A micromodule based on intelligent adjustment technology for power supply of charging pile street lamps according to claim 1, characterized in that: The specific process of calculating the charging efficiency and discharging efficiency by analyzing the charging and discharging data is as follows: The charging efficiency ηc is calculated, where E1 is the actual stored electric energy, E2 is the total input electric energy, P1(t) is the charging power of the battery at time t, and P2(t) is the charging power input at time t; c=1 or 2; when c=1, ηc is the process of the solar power generation unit charging the energy storage unit; when c=2, ηc is the process of the mains power supply unit charging the energy storage unit; similarly, the discharge efficiency ηd is calculated, and the discharge efficiency ηd is obtained by the formula, where; d=3, 4, 5, 6, when d=3, ηd is the process of the mains power supply unit supplying power to the lighting control unit; when d=4, ηd is the process of the mains power supply unit supplying power to the charging pile unit; when d=5, ηd is the process of the energy storage unit supplying power to the lighting control unit; when d=6, ηd is the process of the energy storage unit supplying power to the energy storage unit.

6. A micromodule based on intelligent adjustment technology for power supply of charging pile street lamps according to claim 1, characterized in that: The specific process of calculating the street light brightness value based on the light intensity and lighting demand is as follows: Obtain the real-time light intensity It, and substitute the light intensity It into the preset street lamp brightness formula B(t)=f(It(t))=Bmax-k×It(t) to output the street lamp brightness value Bt; wherein Bmax is the maximum brightness of the street lamp, and k is the adjustment coefficient; match the street lamp brightness value Bt with the preset lighting brightness intervals of several charging pile street lamps. If the street lamp brightness value Bt belongs to one of the preset lighting brightness intervals of several charging pile street lamps, then control the lighting brightness of the charging pile street lamp to be consistent with the lighting brightness in the corresponding interval; analyze the relationship between environmental factors and charging efficiency ηc or discharge efficiency ηd by establishing a regression model, which is: ηow=ηo0+α×(w-w0) to output the charging and discharging efficiency ηow after the influence of temperature, o=c or d; ηc0 is the charging and discharging efficiency at the reference temperature, w0 is the reference temperature, and α is the temperature coefficient.

7. A micromodule based on intelligent adjustment technology for power supply of charging pile street lamps according to claim 1, characterized in that: The specific process of analyzing the energy management data to obtain the voltage fluctuation value and the current fluctuation value is as follows: Obtain the fluctuation of urban power supply voltage and current, and evaluate the urban power supply stability of the power grid; First, the mean and variance of the obtained power supply voltage and power supply current are calculated to obtain the mean value of the power supply voltage, the mean value of the power supply current, the variance of the power supply voltage, and the variance of the power supply current; Then, the voltage fluctuation range and the current fluctuation range are obtained by calculating the maximum and minimum values ​​of the power supply voltage and current, and the voltage fluctuation value and the current fluctuation value are obtained by calculation; The voltage fluctuation value and the current fluctuation value are matched with their respective corresponding preset fluctuation intervals. If both the voltage fluctuation value and the current fluctuation value belong to their respective corresponding preset fluctuation intervals, a fluctuation abnormality signal is generated. If one of the voltage fluctuation value and the current fluctuation value belongs to their respective corresponding preset fluctuation intervals, the lighting control unit and the charging pile unit are powered by the energy storage unit. Specifically, if the power of the energy storage unit is interval one, the lighting control unit and the charging pile unit are powered directly by the energy storage unit. If the power of the energy storage unit is interval two, the lighting control unit and the charging pile are powered by the AC power supply unit and the energy storage unit. The unit supplies power; if the energy storage unit is in interval three, the mains power supply unit and the solar power generation unit charge the energy storage unit, and the energy storage unit supplies power to the lighting control unit and the charging pile unit; if the energy storage unit is in interval four, the charging efficiency of the mains power supply unit and the solar power generation unit to the energy storage unit is calculated to obtain the total charging efficiency XC, if XC>0, the energy storage unit supplies power to the lighting control unit and the charging pile unit, otherwise, if XC≦0, and XC1>0, the energy storage unit supplies power to the charging pile unit; when XC1≦0, the energy storage unit stops supplying power.

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