Energy-saving energy storage system of communication base station

Abstract

The invention discloses a communication base station energy-saving and energy-storing system, and relates to the technical field of communication base station energy-saving and energy-storing, the system comprises a base station operation monitoring module, a base station operation analysis module, a base station operation management module and a database, the communication base station is monitored in real time, and then corresponding air conditioner mode selection in the communication base station is obtained through analysis; and secondly, aiming at each change of the corresponding time period of the communication base station, energy conservation and energy storage of the corresponding power of the communication base station after each change are analyzed, so that comprehensive and efficient power consumption control of the communication base station is realized, the power consumption cost of the communication base station is reduced, and efficient utilization of natural energy of the communication base station is improved. Meanwhile, the electrical load of the communication base station is reduced, the service life of communication equipment is prolonged, the operation environment of the communication base station is guaranteed, and the safety risk of equipment operation of the communication base station is reduced.

Description

Technical Field

[0001] The present invention relates to the technical field of energy-saving energy storage for communication base stations, and in particular to an energy-saving energy storage system for a communication base station. Background Art

[0002] With the continuous development of communication technology, the energy consumption of base station equipment is also increasing. Therefore, it is necessary to perform corresponding energy saving on the base station to reduce the operating cost of the communication base station. By monitoring the corresponding temperature of the communication base station, the corresponding cooling equipment in the base station can be turned on at the right time to achieve precise cooling control, so as not to waste any electricity and achieve efficient and comprehensive power saving. Based on the monitoring and analysis of the communication base station time period, effective power storage can be achieved.

[0003] Prior art, such as the invention patent application with announcement number CN218065203U, discloses an energy-saving system for a communication base station. The system sets a second temperature sensor inside the room and a first temperature sensor outside the room, and compares the temperature values ​​inside and outside the room to determine whether the gas entering the heat exchange coil is outside air or air inside the room. That is, the air with lower temperature is cooled to achieve energy-saving effect. This structural design is simple, clever and practical, and is convenient for quickly cooling the air in the heat exchange coil.

[0004] With respect to the above scheme, there are at least the following technical problems: the above invention is mainly based on installing an exhaust fan in the base station, thereby utilizing the absorption of ambient air to achieve the effect of cooling the base station. It does not perform real-time monitoring in the communication base station, and cannot accurately perform the corresponding air-conditioning mode setting in the communication base station. As a result, it is impossible to quickly analyze the power supply of the communication base station corresponding to the air-conditioning mode, and fails to achieve high-quality and energy-saving power supply. It also does not analyze the air-conditioning setting mode of the communication base station based on the time period change, and cannot know whether the current air-conditioning mode can meet the base station operation after the time period change, and cannot provide a high-quality and safe operating environment for the communication base station. At the same time, it cannot guarantee energy saving in terms of electricity consumption of the communication base station, and will omit or miss the low-energy applications corresponding to the communication base station, thereby increasing the electricity consumption cost of the communication base station. Summary of the invention

[0005] In view of the above-mentioned technical deficiencies, an object of the present invention is to provide an energy-saving energy storage system for a communication base station.

[0006] In order to solve the above technical problems, the present invention adopts the following technical solutions: The present invention provides a communication base station energy-saving energy storage system, including: a base station operation monitoring module, which is used to perform real-time monitoring in the communication base station, and then analyze the corresponding air-conditioning mode selection in the current communication base station, and analyze and obtain the power supply of the corresponding air-conditioning mode of the communication base station.

[0007] The base station operation analysis module is used to determine whether the air-conditioning mode corresponding to the communication base station is adapted to the changed operating time period based on the changes in the time period corresponding to the communication base station, and to analyze and obtain the air-conditioning mode power supply corresponding to the peak period of the communication base station.

[0008] The base station operation management module is used to analyze and obtain the power supply results of the corresponding air conditioners in the communication base station based on the conversion during peak hours.

[0009] Compared with the prior art, the beneficial effects of the present invention are: 1. The present invention provides a communication base station energy-saving and energy storage system, which monitors the communication base station in real time, and then analyzes the corresponding air-conditioning mode selection in the communication base station and provides corresponding power supply. Secondly, for each change in the corresponding time period of the communication base station, the energy saving and energy storage of the corresponding electricity of the communication base station after each change are analyzed, thereby realizing comprehensive and efficient power conservation of the communication base station, reducing the electricity cost of the communication base station, and improving the efficient utilization of natural energy in the communication base station. At the same time, it reduces the power load of the communication base station, extends the service life of the communication equipment, protects the operating environment of the communication base station, and reduces the safety risks of the operation of the communication base station equipment.

[0010] 2. Based on judging whether the air-conditioning mode corresponding to the communication base station is adapted to the changed operating time period, and analyzing the air-conditioning mode power supply corresponding to the communication base station during the peak period, efficient communication base station power supply monitoring can be achieved, so as to take timely measures to ensure a good operating environment for the corresponding equipment of the communication base station, and realize the coordinated work and reasonable power supply of different power supplies in the base station, thereby reducing the electricity cost of the base station. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0012] Figure 1 It is a schematic diagram of the system structure connection of the present invention; Figure 2 It is a schematic diagram of the method steps of the present invention. DETAILED DESCRIPTION

[0013] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. 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.

[0014] See also Figure 1-2 As shown, a communication base station energy-saving energy storage system includes a base station operation monitoring module, a base station operation analysis module, a base station operation management module and a database.

[0015] The base station operation monitoring module is connected to the base station operation analysis module and the database respectively, the base station operation analysis module is connected to the base station operation management module and the database respectively, and the base station operation management module is connected to the database.

[0016] The base station operation monitoring module is used to perform real-time monitoring in the communication base station, and then analyze the corresponding air-conditioning mode selection in the current communication base station, and analyze and obtain the power supply of the corresponding air-conditioning mode of the communication base station.

[0017] It should be noted that the corresponding reference temperature in the communication base station is set by the management personnel.

[0018] As an optional implementation, the analysis of the corresponding air-conditioning mode selection in the current communication base station is as follows: Q1. Use a temperature sensor to monitor the temperature in the communication base station, and compare the corresponding temperature in the communication base station with the reference temperature threshold corresponding to the communication base station stored in the database. If the monitored temperature in the current communication base station is greater than the reference temperature threshold corresponding to the communication base station stored in the database, it is determined that the communication base station needs to perform corresponding temperature adjustment. Otherwise, it is determined that the temperature corresponding to the communication base station is suitable for operation.

[0019] Q2. Compare the monitored temperature in the current communication base station with the temperature excess intervals stored in the database. If the monitored temperature in the current communication base station is within the first-level temperature excess interval stored in the database, the air-conditioning ventilation mode corresponding to the first-level temperature excess interval is selected as the corresponding air-conditioning mode in the current communication base station. If the monitored temperature in the current communication base station is within the second-level temperature excess interval stored in the database, the air-conditioning mode corresponding to the second-level temperature excess interval is selected as the corresponding air-conditioning mode in the current communication base station. By analogy, the corresponding air-conditioning mode selection in the current communication base station is obtained.

[0020] It should be noted that power information includes active power, time-sharing power and total current; each time period includes flat period, peak period and valley period. Flat period is from 11 am to 7 pm; peak period is from 7 am to 11 pm; valley period is from 11 pm to 7 am the next day.

[0021] As an optional implementation, the analysis obtains the power supply of the communication base station corresponding to the air-conditioning mode, and the specific analysis process is as follows: the corresponding power information in the communication base station is obtained, and the power characteristic value is extracted therefrom, and the extracted power characteristic value is compared with the standard power characteristic value corresponding to each time period stored in the database. If the extracted power characteristic value is the same as the standard power characteristic value corresponding to a certain time period stored in the database, the time period corresponding to the current communication base station is obtained, and based on the corresponding power demand value of the air-conditioning mode in the current communication base station, the light intensity of the photovoltaic panel corresponding to the communication base station is obtained, and based on the power conversion formula of the photovoltaic panel light intensity, the current photovoltaic panel available power value is obtained. If the photovoltaic panel available power value is greater than or equal to the corresponding power demand value of the air-conditioning mode in the communication base station, the photovoltaic panel is used as the first power supply for the air-conditioning mode of the communication base station. Otherwise, the city power corresponding to the time period of the communication base station is used as the first power supply for the air-conditioning mode. In this way, the power supply of the communication base station corresponding to the air-conditioning mode is obtained by analysis.

[0022] The base station operation analysis module is used to determine whether the air-conditioning mode corresponding to the communication base station is adapted to the changed operating time period based on the changes in the time period corresponding to the communication base station, and to analyze and obtain the air-conditioning mode power supply corresponding to the peak period of the communication base station.

[0023] It should be noted that the number of data packets and data flow sent by the communication base station is obtained from the database, and the communication load value corresponding to the communication base station is calculated; the current sensor is used to monitor the current corresponding to the current communication base station, and combined with the rated current corresponding to the communication base station, the equipment operation value corresponding to the communication base station is obtained; the temperature sensor is used to monitor the temperature at each time point in the communication base station, and based on the difference between the corresponding temperatures at each time point, the temperature trend value corresponding to the communication base station is obtained.

[0024] As an optional implementation, the determination of whether the air-conditioning mode corresponding to the communication base station is adapted to the changed operating time period is specifically determined as follows: when the time period corresponding to the communication base station changes, based on obtaining real-time monitoring data within the communication base station, including communication load values, equipment operation values ​​and temperature trend values, the communication load difference, equipment operation difference and temperature trend difference corresponding to the communication base station before the time period changes are obtained, and compared with the allowed communication load difference, allowed equipment operation difference and allowed temperature trend difference corresponding to the air-conditioning mode stored in the database, respectively. If, after the time period changes, the communication load difference of the communication base station is greater than the allowed communication load difference, the equipment operation difference is equal to the allowed equipment operation difference, or the allowed temperature trend difference is greater than the allowed temperature trend difference, then it indicates that the air-conditioning mode corresponding to the communication base station is not adapted to the changed operating time period, and the air-conditioning mode is adjusted; otherwise, it indicates that the air-conditioning mode corresponding to the communication base station is adapted to the changed operating time period, and the air-conditioning mode is not adjusted.

[0025] As an optional implementation, the analysis obtains the air-conditioning mode power supply corresponding to the communication base station during the peak period, and the specific analysis process is as follows: based on the monitoring data corresponding to the communication base station, the peak period of the period corresponding to the current change of the communication base station is obtained, and based on the reference temperature required when the communication base station is in the peak period stored in the database, the air-conditioning ventilation mode corresponding to the communication base station is adjusted to the cooling mode.

[0026] Obtain the irradiation information of the photovoltaic panels of the communication base station after the irradiation environment changes, including spectral distribution area, photoelectric conversion efficiency, light intensity and output power, and perform normalized data processing to obtain the power support result value of the photovoltaic panels corresponding to the communication base station, recorded as , and obtain the duration of the peak period and the peak period electricity price corresponding to the communication base station at the same time, and import the above data into the power supply cost result evaluation model: ,in The power supply cost result value of the communication base station using the mains and photovoltaic panels corresponding to the air conditioning mode, is the reference electricity supply cost value set, is the cost value of the communication base station corresponding to the mains application, is the electricity price of the communication base station during peak hours, is the duration of the peak period corresponding to the communication base station, is the set photovoltaic panel power support result value, Supply value for set reference electricity cost.

[0027] If the result value of the electricity supply cost is 1, photovoltaic panels are used to supply electricity for the air-conditioning and cooling mode of the communication base station during the peak period. If the result value of the electricity supply cost is 0, photovoltaic panels and municipal power are used to supply electricity alternately for the air-conditioning and cooling mode of the communication base station during the peak period. When the photovoltaic panels cannot output electricity, they are switched to municipal power supply. This analysis is used to obtain the electricity supply for the air-conditioning mode of the communication base station during the peak period.

[0028] It should be noted that the reference mains electricity supply cost value and photovoltaic panel power support result value are set by the management personnel.

[0029] It should be noted that the electricity cost supply value corresponding to the historical peak period in the communication base station is obtained from the database, and then the average of each electricity cost supply value is calculated to obtain the average electricity cost supply value, which is used as the reference electricity cost supply value.

[0030] It should be noted that the spectral distribution area of ​​the photovoltaic panels of the communication base station corresponding to the changes in the illumination environment is obtained by using a ground object spectrometer; the photoelectric conversion efficiency of the photovoltaic panels of the communication base station corresponding to the changes in the illumination environment is monitored by two efficiency testers; the light intensity of the photovoltaic panels of the communication base station corresponding to the changes in the illumination environment is obtained by using an illuminance meter; the corresponding current and voltage are monitored by using a current sensor and a voltage sensor, and substituted into the power calculation formula to obtain the output power of the photovoltaic panels of the base station corresponding to the changes in the illumination environment.

[0031] As an optional implementation, the air-conditioning mode adjusted accordingly by the current communication base station is specifically adjusted as follows: extracting operating characteristic values ​​from the real-time monitoring data in the communication base station, and combining the suitable operating characteristic value set corresponding to each air-conditioning mode stored in the database, the corresponding operating characteristic values ​​in the communication base station are compared with the suitable operating characteristic value set corresponding to each air-conditioning mode; if the corresponding operating characteristic value in the communication base station is in the suitable operating characteristic value set corresponding to a certain air-conditioning mode, then the air-conditioning mode is used as the air-conditioning mode adjusted accordingly by the current communication base station.

[0032] As an optional implementation manner, the power support result value of the photovoltaic panel corresponding to the communication base station is obtained, and the specific analysis process is as follows: according to the spectral distribution area, photoelectric conversion efficiency, light intensity and output power of the photovoltaic panel of the communication base station after the corresponding illumination environment changes, the spectral distribution area difference, photoelectric conversion efficiency difference, light intensity difference and output power difference of the photovoltaic panel of the communication base station before the illumination environment changes are obtained, and compared with the permitted spectral distribution area difference, permitted photoelectric conversion efficiency difference, permitted light intensity difference and permitted output power difference corresponding to the photovoltaic panel stored in the database, respectively. If the spectral distribution area difference of the photovoltaic panel of the communication base station after the illumination environment changes is greater than the permitted spectral distribution area difference, the photoelectric conversion efficiency difference is greater than the permitted photoelectric conversion efficiency difference, the light intensity difference is greater than the permitted light intensity difference, or the output power difference is equal to the permitted output power difference, it indicates that the power capacity value of the photovoltaic panel of the communication base station after the corresponding environment changes is in a high-quality absorption state, which will be recorded as , otherwise, it will be recorded as , get the power support result value of the photovoltaic panel corresponding to the communication base station , The value is or .

[0033] Based on judging whether the air-conditioning mode corresponding to the communication base station is adapted to the changed operating time period, and analyzing the air-conditioning mode power supply corresponding to the communication base station during the peak period, efficient communication base station power supply monitoring is realized, so as to take timely measures to ensure a good operating environment for the corresponding equipment of the communication base station, and realize the coordinated work and reasonable power supply of different power supplies in the base station, thereby reducing the electricity cost of the base station.

[0034] The base station operation management module is used to analyze and obtain the power supply results of the corresponding air conditioners in the communication base station based on the conversion during peak hours.

[0035] It should be noted that the temperature corresponding to the current environment is obtained by using a temperature sensor; the light angle is obtained by using a solar altitude angle meter; the corresponding remaining sunshine duration is obtained from the weather software; the battery voltage of the battery corresponding to the communication base station is obtained from a multimeter; the battery current of the battery corresponding to the communication base station is obtained by using an ammeter; and the storage capacity of the battery corresponding to the communication base station is obtained from the database.

[0036] As an optional implementation, the analysis obtains the power supply result of the corresponding air conditioner in the communication base station, and the specific analysis process is as follows: when it is monitored that the power value of the corresponding work of the communication base station shows a downward trend, it is obtained that the corresponding peak period of the communication base station begins to switch, and then the basic information corresponding to the communication base station is obtained, wherein the basic information includes photovoltaic panel data and battery data, wherein the photovoltaic panel data includes temperature, light angle and remaining sunshine duration, and the battery data includes battery voltage, battery current and storage capacity, and data processing is performed to obtain the power supply results of the photovoltaic panel and the power supply results of the battery, and they are recorded as and .

[0037] Input the photovoltaic panel power supply results and battery power supply results converted by the communication base station during the peak period into the power supply result model: ,in The power supply result after the communication base station is converted to the peak period. The results of the photovoltaic panels supplying electricity to the communication base station before the peak period conversion. The battery power supply results for the communication base station before the peak period conversion, Supply value for set reference power result.

[0038] When the power supply result is 1, it is determined that the photovoltaic panels and batteries of the communication base station have sufficient power supply after the change in peak time period, and the photovoltaic panels will continue to be used for power supply priority. When the power supply result is 0, it is determined that the photovoltaic panels and batteries of the communication base station have insufficient power supply after the change in peak time period, and the AC power will be used instead, and the AC power will be used to store energy in the battery.

[0039] It should be noted that the power supply values ​​of the photovoltaic panels and batteries of the communication base station corresponding to the historical peak period are obtained from the database, and the average value of each power supply value is calculated to obtain the average power supply value, which is used as the reference power supply value.

[0040] As an optional implementation, the photovoltaic panel power supply result is obtained, and the specific analysis process is as follows: according to the temperature, illumination angle and remaining sunshine duration of the photovoltaic panel of the communication base station after conversion to the peak period, the temperature difference, illumination angle difference and remaining sunshine duration difference of the photovoltaic panel of the communication base station before conversion to the peak period are obtained, and compared with the permitted temperature difference, permitted illumination angle difference and permitted remaining sunshine duration difference corresponding to the photovoltaic panel stored in the database respectively. If the temperature difference of the photovoltaic panel of the communication base station after conversion to the peak period is less than the permitted temperature difference, the illumination angle difference is equal to the permitted illumination angle difference, or the remaining sunshine duration difference is less than the permitted remaining sunshine duration difference, it indicates that the power absorption value of the photovoltaic panel of the communication base station after conversion to the peak period is not affected, and the power absorption value has not decreased, which will be recorded as , otherwise, it will be recorded as , get the power supply result of the photovoltaic panel corresponding to the communication base station , The value is or .

[0041] As an optional implementation, the analysis obtains the result of the power available from the battery, and the specific analysis process is as follows: according to the battery voltage, battery current and storage capacity of the photovoltaic panel of the communication base station after conversion corresponding to the peak period, the battery voltage difference, battery current difference and storage capacity difference of the photovoltaic panel of the communication base station before conversion corresponding to the peak period are obtained, and compared with the permitted battery voltage difference, permitted battery current difference and permitted storage capacity difference corresponding to the photovoltaic panel stored in the database respectively. If the battery voltage difference of the photovoltaic panel of the communication base station after conversion corresponding to the peak period is less than the permitted battery voltage difference, the battery current difference is equal to the permitted storage capacity difference, or the remaining storage capacity difference is less than the permitted storage capacity difference, then it indicates that the power storage capacity of the battery of the communication base station after conversion corresponding to the peak period is qualified and meets the power supply, which will be recorded as , otherwise, it will be recorded as , get the power supply result of the battery corresponding to the communication base station , The value is or .

[0042] The database is used to store temperature, reference temperature threshold, each temperature over-value interval, power information, monitoring data, irradiation information and basic information.

[0043] The embodiment of the present invention monitors the communication base station in real time, and then analyzes and obtains the corresponding air-conditioning mode selection in the communication base station, and provides the corresponding power supply. Secondly, for each change in the corresponding time period of the communication base station, the energy saving and energy storage of the corresponding power of the communication base station after each change are analyzed, thereby realizing comprehensive and efficient power conservation of the communication base station, reducing the electricity cost of the communication base station, and improving the efficient use of natural energy in the communication base station. At the same time, it reduces the power load of the communication base station, prolongs the service life of the communication equipment, protects the operating environment of the communication base station, and reduces the safety risks of the operation of the communication base station equipment.

[0044] The above contents are merely examples and explanations of the concept of the present invention. The technicians in this technical field may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the concept of the invention or exceed the scope defined in this specification, they should all fall within the protection scope of the present invention.

Claims

1. A communication base station energy-saving energy storage system, characterized in that: include: The base station operation monitoring module is used to perform real-time monitoring in the communication base station, and then analyze the corresponding air conditioning mode selection in the current communication base station, and analyze and obtain the power supply of the corresponding air conditioning mode of the communication base station; The base station operation analysis module is used to determine whether the air conditioning mode corresponding to the communication base station is adapted to the changed operation period based on the changes in the time period corresponding to the communication base station, and to analyze and obtain the power supply of the air conditioning mode corresponding to the peak period of the communication base station; The base station operation management module is used to analyze and obtain the power supply results of the corresponding air conditioners in the communication base station based on the conversion during peak hours.

2. A communication base station energy-saving storage system according to claim 1, characterized in that: The analysis of the corresponding air conditioning mode selection in the current communication base station is as follows: Q1. Use a temperature sensor to monitor the temperature in the communication base station, and compare the corresponding temperature in the communication base station with the reference temperature threshold corresponding to the communication base station stored in the database. If the monitored temperature in the current communication base station is greater than the reference temperature threshold corresponding to the communication base station stored in the database, it is determined that the communication base station needs to perform corresponding temperature adjustment. Otherwise, it is determined that the temperature corresponding to the communication base station is suitable for operation; Q2. Compare the monitored temperature in the current communication base station with the temperature excess intervals stored in the database. If the monitored temperature in the current communication base station is within the first-level temperature excess interval stored in the database, the air-conditioning ventilation mode corresponding to the first-level temperature excess interval is selected as the corresponding air-conditioning mode in the current communication base station. If the monitored temperature in the current communication base station is within the second-level temperature excess interval stored in the database, the air-conditioning mode corresponding to the second-level temperature excess interval is selected as the corresponding air-conditioning mode in the current communication base station. By analogy, the corresponding air-conditioning mode selection in the current communication base station is obtained.

3. A communication base station energy-saving storage system as claimed in claim 1, characterized in that: The analysis obtains the power supply of the communication base station corresponding to the air conditioning mode. The specific analysis process is as follows: The corresponding power information in the communication base station is obtained, and the power characteristic value is extracted from it. The extracted power characteristic value is compared with the standard power characteristic value corresponding to each time period stored in the database. If the extracted power characteristic value is the same as the standard power characteristic value corresponding to a certain time period stored in the database, the time period corresponding to the current communication base station is obtained, and based on the corresponding power demand value of the air-conditioning mode in the current communication base station, the light intensity of the photovoltaic panel corresponding to the communication base station is obtained, and based on the power conversion formula of the photovoltaic panel light intensity, the current photovoltaic panel supply power value is obtained. If the photovoltaic panel supply power value is greater than or equal to the corresponding power demand value of the air-conditioning mode in the communication base station, the photovoltaic panel is used as the first power supply for the air-conditioning mode of the communication base station. Otherwise, the mains power of the communication base station in the time period is used as the first power supply for the air-conditioning mode. The power supply of the communication base station corresponding to the air-conditioning mode is obtained by this analysis.

4. A communication base station energy-saving storage system according to claim 1, characterized in that: The specific judgment process of judging whether the air conditioning mode corresponding to the communication base station is adapted to the changed operation time period is as follows: When the time period corresponding to the communication base station changes, based on obtaining real-time monitoring data in the communication base station, including the communication load value, the equipment operation value and the temperature trend value, the communication load difference, the equipment operation difference and the temperature trend difference corresponding to the communication base station before the change in the time period are obtained, and compared with the allowable communication load difference, the allowable equipment operation difference and the allowable temperature trend difference corresponding to the air-conditioning mode stored in the database, respectively. If the communication load difference of the communication base station after the time period change is greater than the allowable communication load difference, the equipment operation difference is equal to the allowable equipment operation difference, or the allowable temperature trend difference is greater than the allowable temperature trend difference, it indicates that the air-conditioning mode corresponding to the communication base station is not suitable for the changed operating time period, and the air-conditioning mode is adjusted. Otherwise, it indicates that the air-conditioning mode corresponding to the communication base station is suitable for the changed operating time period, and the air-conditioning mode is not adjusted.

5. A communication base station energy-saving storage system as claimed in claim 1, characterized in that: The analysis obtains the power supply of the air conditioning mode of the communication base station corresponding to the peak period. The specific analysis process is as follows: Based on the monitoring data corresponding to the communication base station, the peak period of the period corresponding to the change of the current communication base station is obtained, and based on the reference temperature required when the communication base station is in the peak period stored in the database, the air conditioning ventilation mode corresponding to the communication base station is adjusted to the cooling mode; Obtain the irradiation information of the photovoltaic panels of the communication base station after the irradiation environment changes, including spectral distribution area, photoelectric conversion efficiency, light intensity and output power, and perform normalized data processing to obtain the power support result value of the photovoltaic panels corresponding to the communication base station, recorded as , and obtain the duration of the peak period and the peak period electricity price corresponding to the communication base station, and import the above data into the power supply cost result evaluation model: ,in The power supply cost result value of the communication base station using the mains and photovoltaic panels corresponding to the air conditioning mode, is the reference electricity supply cost value set, is the cost value of the communication base station corresponding to the mains application, is the electricity price of the communication base station during peak hours, is the duration of the peak period corresponding to the communication base station, is the set photovoltaic panel power support result value, Supply value for set reference electricity cost; If the result value of the electricity supply cost is 1, photovoltaic panels are used to supply electricity for the air-conditioning and cooling mode of the communication base station during the peak period. If the result value of the electricity supply cost is 0, photovoltaic panels and municipal power are used to supply electricity alternately for the air-conditioning and cooling mode of the communication base station during the peak period. When the photovoltaic panels cannot output electricity, they are switched to municipal power supply. This analysis is used to obtain the electricity supply for the air-conditioning mode of the communication base station during the peak period.

6. A communication base station energy-saving storage system as claimed in claim 5, characterized in that: The current communication base station corresponds to the adjusted air conditioning mode, and the specific adjustment process is as follows: The operating characteristic values ​​are extracted from the real-time monitoring data in the communication base station, and combined with the suitable operating characteristic value set corresponding to each air-conditioning mode stored in the database, the corresponding operating characteristic values ​​in the communication base station are compared with the suitable operating characteristic value set corresponding to each air-conditioning mode. If the corresponding operating characteristic value in the communication base station is in the suitable operating characteristic value set corresponding to a certain air-conditioning mode, then the air-conditioning mode is used as the air-conditioning mode adjusted accordingly for the current communication base station.

7. A communication base station energy-saving storage system as claimed in claim 5, characterized in that: The power support result value of the photovoltaic panel corresponding to the communication base station is obtained, and the specific analysis process is as follows: According to the spectral distribution area, photoelectric conversion efficiency, light intensity and output power of the photovoltaic panels of the communication base station after the corresponding illumination environment changes, the spectral distribution area difference, photoelectric conversion efficiency difference, light intensity difference and output power difference of the photovoltaic panels of the communication base station before the illumination environment changes are obtained, and compared with the permitted spectral distribution area difference, permitted photoelectric conversion efficiency difference, permitted light intensity difference and permitted output power difference corresponding to the photovoltaic panels stored in the database. If the spectral distribution area difference of the photovoltaic panels of the communication base station after the illumination environment changes is greater than the permitted spectral distribution area difference, the photoelectric conversion efficiency difference is greater than the permitted photoelectric conversion efficiency difference, the light intensity difference is greater than the permitted light intensity difference, or the output power difference is equal to the permitted output power difference, it indicates that the power capacity value of the photovoltaic panels of the communication base station after the corresponding environment changes is in a high-quality absorption state, which will be recorded as , otherwise, it will be recorded as , get the power support result value of the photovoltaic panel corresponding to the communication base station , The value is or .

8. A communication base station energy-saving storage system as claimed in claim 1, characterized in that: The analysis obtains the power supply result of the corresponding air conditioner in the communication base station. The specific analysis process is as follows: When the power value of the communication base station corresponding to the work is monitored to show a downward trend, it is obtained that the communication base station corresponding to the peak period begins to switch, and the basic information corresponding to the communication base station is obtained, wherein the basic information includes photovoltaic panel data and battery data, wherein the photovoltaic panel data includes temperature, light angle and remaining sunshine duration, and the battery data includes battery voltage, battery current and storage capacity, and the data is processed to obtain the photovoltaic panel power supply result and the battery power supply result, and are recorded as and ; Input the photovoltaic panel power supply results and battery power supply results converted by the communication base station during the peak period into the power supply result model: ,in The power supply result after the communication base station is converted to the peak period. The results of the photovoltaic panels supplying electricity to the communication base station before the peak period conversion. The battery power supply results for the communication base station before the peak period conversion, Supplying values ​​for set reference power results; When the power supply result is 1, it is determined that the photovoltaic panels and batteries of the communication base station have sufficient power supply after the change in peak time period, and the photovoltaic panels will continue to be used for power supply priority. When the power supply result is 0, it is determined that the photovoltaic panels and batteries of the communication base station have insufficient power supply after the change in peak time period, and the AC power will be used instead, and the AC power will be used to store energy in the battery.

9. A communication base station energy-saving storage system as claimed in claim 8, characterized in that: The specific analysis process of obtaining the power supply result of the photovoltaic panel is as follows: According to the temperature, illumination angle and remaining sunshine duration of the photovoltaic panels of the communication base station after conversion to the corresponding peak period, the temperature difference, illumination angle difference and remaining sunshine duration difference of the photovoltaic panels of the communication base station before conversion to the corresponding peak period are obtained, and compared with the permitted temperature difference, permitted illumination angle difference and permitted remaining sunshine duration difference corresponding to the photovoltaic panels stored in the database. If the temperature difference of the photovoltaic panels of the communication base station after conversion to the corresponding peak period is less than the permitted temperature difference, the illumination angle difference is equal to the permitted illumination angle difference, or the remaining sunshine duration difference is less than the permitted remaining sunshine duration difference, it indicates that the power absorption value of the photovoltaic panels of the communication base station after conversion to the corresponding peak period is not affected, and the power absorption value has not decreased, which will be recorded as , otherwise, it will be recorded as , get the power supply result of the photovoltaic panel corresponding to the communication base station , The value is or .

10. A communication base station energy-saving storage system according to claim 8, characterized in that: The analysis results show that the battery can provide power. The specific analysis process is as follows: According to the battery voltage, battery current and storage capacity of the photovoltaic panels of the communication base station after conversion corresponding to the peak period, the battery voltage difference, battery current difference and storage capacity difference of the photovoltaic panels of the communication base station before conversion corresponding to the peak period are obtained, and compared with the permitted battery voltage difference, permitted battery current difference and permitted storage capacity difference corresponding to the photovoltaic panels stored in the database. If the battery voltage difference of the photovoltaic panels of the communication base station after conversion corresponding to the peak period is less than the permitted battery voltage difference, the battery current difference is equal to the permitted storage capacity difference, or the remaining storage capacity difference is less than the permitted storage capacity difference, it indicates that the power storage capacity of the battery of the communication base station after conversion corresponding to the peak period is qualified and meets the power supply, which will be recorded as , otherwise, it will be recorded as , get the power supply result of the battery corresponding to the communication base station , The value is or .

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