Evaluation system for energy conservation evaluation of base station air conditioner

Abstract

The invention discloses an evaluation system for energy conservation evaluation of a base station air conditioner. The evaluation system comprises a data collection and monitoring module, an energy efficiency evaluation module, a skill suggestion and measure implementation module, a report generation and display module and a remote monitoring and management module. The data collecting and monitoring module is used for collecting operation data of the base station air conditioning system in real time; the energy efficiency evaluation module is used for processing operation data of the base station air conditioning system collected in real time to obtain an energy efficiency evaluation result; the energy-saving suggestion and test real-time module is used for generating energy-saving suggestions and measures according to the energy-saving evaluation result root; the report generation and display module is used for generating an energy-saving evaluation report and visually displaying the energy-saving evaluation report; and the remote monitoring and management module is used for providing remote monitoring and management control functions for a user. The base station air conditioner energy-saving evaluation method can better and more accurately carry out base station air conditioner energy-saving evaluation, and different use requirements of users are met.

Description

Technical Field

[0001] The invention relates to the field of evaluation systems, and in particular to an evaluation system for energy-saving evaluation of base station air conditioners. Background Art

[0002] Energy-saving assessment of base station air conditioners is a process of comprehensive analysis and evaluation of the energy efficiency, operating status and energy-saving potential of base station air conditioner systems. This assessment aims to identify energy efficiency issues in the air conditioner system, make improvement suggestions, and achieve energy saving and consumption reduction of base station air conditioners by optimizing operating strategies, improving equipment performance or introducing energy-saving technologies;

[0003] In the process of energy-saving evaluation of base station air conditioners, an evaluation system will be used to conduct energy-saving evaluation of base station air conditioners.

[0004] The existing evaluation system has large deviations in evaluation results and cannot provide enterprises with relevant parameter information well, which has a certain impact on the use of the evaluation system. Therefore, an evaluation system for base station air conditioning energy saving evaluation is proposed. Summary of the invention

[0005] The technical problem to be solved by the present invention is: how to solve the problem that the existing evaluation system has large deviations in evaluation results and cannot provide enterprises with relevant parameter information well, which has a certain impact on the use of the evaluation system. An evaluation system for base station air conditioning energy-saving evaluation is provided.

[0006] The present invention solves the above technical problems through the following technical solutions, which include a data collection and monitoring module, an energy efficiency evaluation module, a skill suggestion and measure implementation module, a report generation and display module, and a remote monitoring and management module;

[0007] The data collection and monitoring module is used to collect the operating data of the base station air conditioning system in real time;

[0008] The energy efficiency evaluation module is used to process the real-time collected operation data of the base station air conditioning system to obtain energy-saving evaluation results;

[0009] The energy-saving suggestion and test real-time module is used to generate energy-saving suggestions and measures based on the energy-saving evaluation results;

[0010] The report generation and display module is used to generate energy-saving evaluation reports and perform visual display;

[0011] The remote monitoring and management module is used to provide users with remote monitoring and management control functions.

[0012] Furthermore, the specific process of the data collection and monitoring module collecting the operating data of the base station air conditioning system is as follows:

[0013] Determine monitoring parameters: First, determine the parameters that need to be monitored;

[0014] Select sensors and instruments: Select corresponding sensors and instruments for data collection according to the parameters to be monitored;

[0015] Install sensors and instruments: Install sensors and instruments at the corresponding positions of the base station air conditioning system;

[0016] Establish a data acquisition network: connect sensors and instruments to the data acquisition system by wire or wireless means to form a data acquisition network;

[0017] Configure data acquisition system: configure the parameters of the data acquisition system, including sampling frequency, data storage method, and data transmission method;

[0018] Data acquisition: The data acquisition system reads the real-time data of various parameters from sensors and instruments according to the preset sampling frequency and stores it in a local or remote server;

[0019] Data transmission: When remote monitoring is used, the data acquisition system also needs to transmit the collected data to a remote server or data center via wired or wireless means;

[0020] Data verification and preprocessing: Verify and preprocess the collected data, including data cleaning and format conversion, and then obtain the operating data of the base station air conditioning system;

[0021] Real-time monitoring and display: Through the user interface or visualization tools, the operating status of the base station air conditioning system and the changes in key parameters can be monitored in real time;

[0022] Data backup and storage: back up and store the collected data.

[0023] Furthermore, after the sensors and meters have been installed for a preset period of time, they need to be monitored for abnormalities, and the abnormality monitoring content includes monitoring data accuracy and position changes;

[0024] When the monitoring data accuracy is abnormal or the position change is abnormal, sensor instrument abnormal maintenance information is generated.

[0025] Furthermore, the acquisition process of the monitoring data accuracy and position change is as follows: regularly perform sensor data testing, collect x test results, calculate the difference between the x test results and the standard data, obtain x evaluation differences, extract the number of x evaluation differences that is less than a preset value to obtain the monitoring data accuracy;

[0026] After the sensor and the instrument are installed for a preset time, their real-time position information is collected, and then the standard position information of the sensor and the instrument when they are installed is extracted, and then the position difference between the real-time position information and the standard position information is measured, that is, the position change is obtained;

[0027] When the accuracy of the monitoring data is less than the preset number, it means that there is an abnormality. When the position change is greater than the preset value, it means that there is an abnormality.

[0028] Furthermore, the specific process of the energy efficiency evaluation module obtaining the energy saving evaluation result is as follows:

[0029] Determine the evaluation objectives and scope: clarify the objectives of the energy efficiency evaluation and determine the scope of the evaluation;

[0030] Energy efficiency calculation and analysis: Calculate the energy efficiency index of the base station air conditioning system based on the collected data and information;

[0031] Analyze the comparison between the energy efficiency index and industry standards, historical data or other benchmarks, evaluate the energy efficiency level of the system, and obtain the energy-saving evaluation results.

[0032] Furthermore, the specific process of the energy-saving suggestion and test real-time module for generating energy-saving suggestions and measures according to the energy-saving evaluation result is as follows:

[0033] Analysis of energy-saving assessment results: Based on the energy-saving assessment results, understand the energy efficiency status, existing problems and potential energy-saving space of the base station air-conditioning system, and identify key areas and links with low energy efficiency;

[0034] Formulate energy-saving recommendations: Based on the evaluation results, formulate specific energy-saving recommendations;

[0035] Evaluate energy-saving proposals: Evaluate the energy-saving proposals developed, including technical feasibility, economic and environmental impact, and determine the priority and implementation sequence of the proposals;

[0036] Develop implementation plan: Develop a detailed implementation plan based on the assessment results and energy-saving recommendations;

[0037] Ensure that the plan is actionable and measurable so that its implementation can be monitored and evaluated.

[0038] Implement energy-saving measures: gradually implement energy-saving measures according to the implementation plan, and monitor the system's operating status and energy-saving effects in real time during the implementation process;

[0039] Monitoring and evaluation: After implementing energy-saving measures, continuously monitor the system's operating status and energy-saving effects.

[0040] Furthermore, the specific process of the remote monitoring and management module providing the user with the functions of remote monitoring and management control is as follows:

[0041] Establish a remote connection: determine the network connection method and IP address of the remote device;

[0042] Establishing a network connection between remote devices and a monitoring center;

[0043] Configure monitoring software or system: select the corresponding remote monitoring software or system;

[0044] Configure monitoring software or system, set parameters, thresholds, and alarm mechanisms to be monitored;

[0045] Data collection and transmission: Monitoring software or systems collect the operating status and performance data of remote devices in real time;

[0046] Transmit the collected data to the monitoring center through the network;

[0047] Data display and analysis: In the monitoring center, the operating status and performance data of remote devices are displayed through the user interface or visualization tools;

[0048] Remote management and control: remote access and control of remote devices through monitoring software or systems;

[0049] Respond to equipment fault alarms in real time and perform fault diagnosis and repair remotely.

[0050] Compared with the prior art, the present invention has the following advantages: the evaluation system for base station air conditioning energy-saving evaluation reduces energy consumption costs: energy-saving evaluation can identify unnecessary energy waste in the air-conditioning system, and achieve significant reduction in energy consumption by optimizing operation strategies, improving equipment performance or introducing energy-saving technologies, thereby saving electricity expenses.

[0051] Extend equipment life: Through reasonable operation and maintenance, the wear and failure rate of equipment can be reduced, the service life of equipment can be extended, and the replacement and repair costs can be reduced.

[0052] Optimize the operating environment: Through energy-saving assessment, we can ensure that the temperature and humidity in the base station remain within the appropriate range, provide a stable operating environment for communication equipment, and reduce equipment failures and performance degradation caused by environmental factors.

[0053] Energy-saving assessment can not only reduce energy consumption costs, but also improve the operational efficiency of base stations. By optimizing operation strategies and maintenance plans, unnecessary downtime can be reduced, and the availability and reliability of equipment can be improved, making the system more worthy of promotion and use. BRIEF DESCRIPTION OF THE DRAWINGS

[0054] Figure 1 It is the overall structural diagram of the present invention. DETAILED DESCRIPTION

[0055] The following is a detailed description of an embodiment of the present invention. This embodiment is implemented on the premise of the technical solution of the present invention, and a detailed implementation method and a specific operation process are given, but the protection scope of the present invention is not limited to the following embodiment.

[0056] like Figure 1 As shown, this embodiment provides a technical solution: an evaluation system for energy-saving evaluation of base station air conditioners, including a data collection and monitoring module, an energy efficiency evaluation module, a skill suggestion and measure implementation module, a report generation and display module, and a remote monitoring and management module;

[0057] The data collection and monitoring module is used to collect the operating data of the base station air conditioning system in real time;

[0058] The energy efficiency evaluation module is used to process the real-time collected operation data of the base station air conditioning system to obtain energy-saving evaluation results;

[0059] The energy-saving suggestion and test real-time module is used to generate energy-saving suggestions and measures based on the energy-saving evaluation results;

[0060] The report generation and display module is used to generate energy-saving evaluation reports and perform visual display;

[0061] The remote monitoring and management module is used to provide users with remote monitoring and management control functions.

[0062] Data collection and monitoring: The system can collect real-time operating data of the base station air conditioning system, including key parameters such as temperature, humidity, and energy consumption. Through continuous data monitoring, the system can fully understand the operating status and energy efficiency level of the base station air conditioning system.

[0063] Energy efficiency evaluation: Based on the collected data, the system can calculate the energy efficiency indicators of the base station air conditioning system, such as energy efficiency ratio (EER), cooling capacity, power consumption, etc. By comparing with industry standards and historical data, the system can evaluate the energy efficiency level of the base station air conditioning system and find potential energy saving space.

[0064] Energy-saving suggestions and measures: Based on the energy efficiency evaluation results, the system can automatically generate energy-saving suggestions and measures. These suggestions may include adjusting the air conditioner set temperature, optimizing the air conditioner running time, improving the air conditioner maintenance strategy, etc. The system can also provide customized energy-saving solutions based on the actual situation of the base station.

[0065] Report generation and display: The system can generate detailed energy-saving assessment reports, including data charts, analysis conclusions, and energy-saving suggestions. These reports can be output in PDF, Excel, and other formats for easy viewing and sharing by users. In addition, the system also provides intuitive data visualization, allowing users to more intuitively understand the energy efficiency status and energy-saving effects of the base station air conditioning system.

[0066] Remote monitoring and management: The base station air conditioning energy-saving evaluation system usually supports remote monitoring and management functions. Users can access the system remotely through the Internet, view the operating status and energy efficiency data of the base station air conditioning system in real time, and perform remote control and adjustment. This helps to achieve intelligent management and energy-saving optimization of the base station air conditioning system.

[0067] In short, the base station air conditioning energy-saving assessment system is a powerful tool that can help communication operators fully understand the energy efficiency of base station air conditioning systems, discover potential energy-saving space, and provide corresponding energy-saving suggestions and measures. By implementing these energy-saving measures, the energy consumption and operating costs of base station air conditioning systems can be reduced, and the energy efficiency level of communication networks can be improved.

[0068] Determine monitoring parameters: First, it is necessary to determine the key parameters that need to be monitored. These parameters usually include but are not limited to: temperature (indoor and outdoor), humidity, cooling capacity, power consumption, compressor operating status, fan speed, condenser temperature, evaporator temperature, etc.

[0069] Select sensors and instruments: According to the parameters to be monitored, select appropriate sensors and instruments for data collection. These sensors and instruments need to have high precision, stability and reliability to ensure the accuracy of the data.

[0070] Install sensors and instruments: Install sensors and instruments at key locations of the base station air conditioning system to ensure accurate real-time data of various parameters. The installation location should be carefully selected to avoid interference and errors.

[0071] Establish a data acquisition network: Connect sensors and instruments to the data acquisition system by wire or wireless to form a data acquisition network. This network needs to have high reliability and stability to ensure the real-time and accuracy of the data.

[0072] Configure the data acquisition system: Configure the parameters of the data acquisition system, including sampling frequency, data storage method, data transmission method, etc. Ensure that the system can collect and store data according to the preset requirements.

[0073] Data acquisition: The data acquisition system reads the real-time data of various parameters from sensors and instruments according to the preset sampling frequency, and stores it in a local or remote server.

[0074] Data transmission: If remote monitoring is used, the data acquisition system also needs to transmit the collected data to a remote server or data center via wired or wireless means. This process needs to ensure the integrity and security of the data.

[0075] Data verification and preprocessing: Verify the collected data to ensure its accuracy and reliability. At the same time, perform necessary preprocessing on the data, such as data cleaning and format conversion, to facilitate subsequent analysis and processing.

[0076] Real-time monitoring and display: Through the user interface or visualization tools, the operating status of the base station air conditioning system and the changes in key parameters are monitored in real time. Users can view historical data and real-time data at any time to understand the operating status of the system in a timely manner.

[0077] Data backup and storage: The collected data is backed up and stored to prevent data loss or damage. The backed-up data can be used for subsequent analysis and comparison to evaluate the energy efficiency level and energy-saving effect of the base station air conditioning system.

[0078] Through this process, the base station air conditioning energy-saving evaluation system can obtain the real-time operation data of the base station air conditioning system, and conduct continuous monitoring and analysis, providing strong support for subsequent energy efficiency evaluation and energy-saving optimization.

[0079] After the sensors and meters have been installed for a preset period of time, they need to be monitored for abnormalities, including monitoring data accuracy and position changes;

[0080] When the monitoring data accuracy is abnormal or the position change is abnormal, sensor instrument abnormal maintenance information is generated.

[0081] The acquisition process of the monitoring data accuracy and position change is as follows: regularly perform sensor data testing, collect x test results, calculate the difference between the x test results and the standard data, obtain x evaluation differences, extract the number of x evaluation differences that are less than a preset value to obtain the monitoring data accuracy;

[0082] After the sensor and the instrument are installed for a preset time, their real-time position information is collected, and then the standard position information of the sensor and the instrument when they are installed is extracted, and then the position difference between the real-time position information and the standard position information is measured, that is, the position change is obtained;

[0083] When the accuracy of the monitoring data is less than the preset number, it means that there is an abnormality. When the position change is greater than the preset value, it means that there is an abnormality.

[0084] Analysis of energy-saving assessment results: Carefully analyze the energy-saving assessment report to understand the energy efficiency status, existing problems and potential energy-saving space of the base station air-conditioning system.

[0085] Identify key areas and links of low energy efficiency, such as aging equipment, unreasonable operating parameter settings, and improper maintenance.

[0086] Develop energy-saving recommendations: Based on the assessment results, develop specific energy-saving recommendations. This may include replacing energy-efficient equipment, optimizing equipment settings, improving maintenance strategies, etc.

[0087] Ensure that the proposal is feasible and cost-effective, taking into account technical, economic and environmental factors.

[0088] Evaluate energy-saving proposals: Evaluate the energy-saving proposals developed, including technical feasibility, economic performance and environmental impact.

[0089] Prioritize and sequence recommendations to achieve the greatest energy savings within limited resources and time.

[0090] Develop an implementation plan: Based on the assessment results and energy-saving recommendations, develop a detailed implementation plan. The plan should include implementation goals, timetable, responsible persons, required resources, etc.

[0091] Ensure that the plan is actionable and measurable so that its implementation can be monitored and evaluated.

[0092] Implement energy-saving measures: Implement energy-saving measures step by step according to the implementation plan. This may include purchasing and installing new equipment, adjusting equipment settings, improving maintenance processes, etc.

[0093] During the implementation process, pay close attention to the system's operating status and energy-saving effects to ensure that the measures are effectively implemented.

[0094] Monitoring and evaluation: After implementing energy-saving measures, continuously monitor the system's operating status and energy-saving effects.

[0095] Collect relevant data, analyze the actual effects of energy-saving measures, and compare them with the expected goals.

[0096] If any problems or deficiencies are found, adjust the implementation plan or take other remedial measures in a timely manner.

[0097] Continuous improvement: Continuously improve and optimize energy-saving measures based on monitoring and evaluation results.

[0098] Explore new energy-saving technologies and methods to continuously improve the energy efficiency of base station air-conditioning systems.

[0099] Review and summarize energy-saving work regularly to better guide future energy-saving work.

[0100] Training and publicity: Provide energy-saving training to relevant personnel to improve their energy-saving awareness and operational skills.

[0101] Strengthen energy-saving publicity and improve energy-saving awareness and participation throughout the organization.

[0102] Sharing and promotion: Share successful energy-saving experiences and measures with other operators or related industries to promote energy-saving awareness and practices in the industry.

[0103] Participate in industry exchanges and cooperation to jointly promote the development and application of energy-saving technologies.

[0104] Through this process, effective energy-saving recommendations and measures can be formulated based on the energy-saving assessment results, and these measures can be effectively implemented and continuously improved, thereby improving the energy efficiency level of the base station air-conditioning system and reducing energy consumption.

[0105] The specific process of remote monitoring and management usually involves the following key steps to ensure effective monitoring and management of remote equipment such as base station air conditioning systems:

[0106] Establish remote connection: Determine the network connection method and IP address of the remote device (such as the base station air conditioning system).

[0107] Establish a stable network connection between the remote device and the monitoring center, using VPN, SSH, Remote Desktop Protocol (RDP) or other secure remote access technologies.

[0108] Configure monitoring software or system: Select appropriate remote monitoring software or system to ensure that it is compatible with the remote device and can meet the monitoring requirements.

[0109] Configure monitoring software or system, set parameters, thresholds, alarm mechanisms, etc. that need to be monitored.

[0110] Install necessary monitoring agents or plug-ins on remote devices to collect the device's operating status and performance data in real time.

[0111] Data collection and transmission: The monitoring software or system collects the operating status and performance data of remote devices in real time, such as temperature, humidity, power consumption, fault information, etc.

[0112] The collected data is transmitted to the monitoring center via the network to ensure the real-time and accuracy of the data.

[0113] Data display and analysis: In the monitoring center, the operating status and performance data of remote devices are displayed through the user interface or visualization tools.

[0114] Use charts, reports and other forms to display data, so that users can intuitively understand the operating status and energy-saving effects of the equipment.

[0115] Conduct in-depth analysis of data to identify potential problems or improvement opportunities, and provide decision support for subsequent management and optimization.

[0116] Remote management and control: Remotely access and control remote devices through monitoring software or systems, such as adjusting device parameters, starting / stopping devices, updating software, etc.

[0117] Respond to equipment fault alarms in real time, perform remote fault diagnosis and repair, and ensure the normal operation of the equipment.

[0118] Based on the analysis results, energy-saving measures or optimization strategies can be implemented remotely to improve the energy efficiency level of the equipment.

[0119] Security management and permission control: Strengthen the security of remote monitoring and management, and ensure the encryption and integrity of data transmission and storage.

[0120] Strictly control access rights to ensure that only authorized personnel can access and operate remote devices.

[0121] Regularly update and upgrade monitoring software or systems to address potential security risks.

[0122] Continuous monitoring and optimization: Continuously monitor the operating status and performance data of remote devices to ensure that potential problems are discovered and handled in a timely manner.

[0123] According to the actual operation of the equipment, the monitoring and management strategies are continuously optimized to improve management efficiency and energy-saving effects.

[0124] Regularly evaluate and upgrade the remote monitoring and management system to adapt to new needs and challenges.

[0125] Through this process, real-time monitoring and effective management of remote equipment can be achieved to ensure the normal operation and energy saving of equipment. At the same time, remote monitoring and management can also improve management efficiency, reduce operating costs and reduce the need for on-site maintenance.

[0126] In addition, the terms "first" and "second" are used for descriptive purposes only and should not be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Therefore, the features defined as "first" and "second" may explicitly or implicitly include at least one of the features. In the description of the present invention, the meaning of "plurality" is at least two, such as two, three, etc., unless otherwise clearly and specifically defined.

[0127] In the description of this specification, the description with reference to the terms "one embodiment", "some embodiments", "example", "specific example", or "some examples" etc. means that the specific features, structures, materials or characteristics described in conjunction with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic representations of the above terms do not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described may be combined in any one or more embodiments or examples in a suitable manner. In addition, those skilled in the art may combine and combine the different embodiments or examples described in this specification and the features of the different embodiments or examples, without contradiction.

[0128] Although the embodiments of the present invention have been shown and described above, it is to be understood that the above embodiments are exemplary and are not to be construed as limitations of the present invention. A person skilled in the art may change, modify, replace and vary the above embodiments within the scope of the present invention.

Claims

1. An evaluation system for base station air conditioning energy saving evaluation, It is characterized in that It includes data collection and monitoring module, energy efficiency assessment module, skill suggestion and measures implementation module, report generation and display module, and remote monitoring and management module; The data collection and monitoring module is used to collect the operating data of the base station air conditioning system in real time; The energy efficiency evaluation module is used to process the real-time collected operation data of the base station air conditioning system to obtain energy-saving evaluation results; The energy-saving suggestion and test real-time module is used to generate energy-saving suggestions and measures based on the energy-saving evaluation results; The report generation and display module is used to generate energy-saving assessment reports and perform visual display; The remote monitoring and management module is used to provide users with remote monitoring and management control functions.

2. An evaluation system for base station air conditioning energy saving evaluation according to claim 1, Features: The specific process of the data collection and monitoring module collecting the operating data of the base station air conditioning system is as follows: Determine monitoring parameters: First, determine the parameters that need to be monitored; Select sensors and instruments: Select corresponding sensors and instruments for data collection according to the parameters to be monitored; Install sensors and instruments: Install sensors and instruments at the corresponding positions of the base station air conditioning system; Establish a data acquisition network: connect sensors and instruments to the data acquisition system by wire or wireless means to form a data acquisition network; Configure data acquisition system: configure the parameters of the data acquisition system, including sampling frequency, data storage method, and data transmission method; Data acquisition: The data acquisition system reads the real-time data of various parameters from sensors and instruments according to the preset sampling frequency and stores it in a local or remote server; Data transmission: When remote monitoring is used, the data acquisition system also needs to transmit the collected data to a remote server or data center via wired or wireless means; Data verification and preprocessing: Verify and preprocess the collected data, including data cleaning and format conversion, and then obtain the operating data of the base station air conditioning system; Real-time monitoring and display: Through the user interface or visualization tools, the operating status of the base station air conditioning system and the changes in key parameters can be monitored in real time; Data backup and storage: back up and store the collected data.

3. An evaluation system for base station air conditioning energy saving evaluation according to claim 2, Features: After the sensors and meters have been installed for a preset period of time, they need to be monitored for abnormalities, including monitoring data accuracy and position changes; When the monitoring data accuracy is abnormal or the position change is abnormal, sensor instrument abnormal maintenance information is generated.

4. The evaluation system for base station air conditioning energy saving evaluation according to claim 3, Features: The acquisition process of the monitoring data accuracy and position change is as follows: regularly perform sensor data testing, collect x test results, calculate the difference between the x test results and the standard data, obtain x evaluation differences, extract the number of x evaluation differences that are less than a preset value to obtain the monitoring data accuracy; After the sensor and the instrument are installed for a preset time, their real-time position information is collected, and then the standard position information of the sensor and the instrument when they are installed is extracted, and then the position difference between the real-time position information and the standard position information is measured, that is, the position change is obtained; When the accuracy of the monitoring data is less than the preset number, it means that there is an abnormality. When the position change is greater than the preset value, it means that there is an abnormality.

5. The evaluation system for base station air conditioning energy saving evaluation according to claim 1, Features: The specific process of the energy efficiency evaluation module obtaining the energy saving evaluation result is as follows: Determine the evaluation objectives and scope: clarify the objectives of the energy efficiency evaluation and determine the scope of the evaluation; Energy efficiency calculation and analysis: Calculate the energy efficiency index of the base station air conditioning system based on the collected data and information; Analyze the comparison between the energy efficiency index and industry standards, historical data or other benchmarks, evaluate the energy efficiency level of the system, and obtain the energy-saving evaluation results.

6. An evaluation system for base station air conditioning energy saving evaluation according to claim 1, Features: The specific process of the energy-saving suggestion and test real-time module for generating energy-saving suggestions and measures according to the energy-saving evaluation results is as follows: Analysis of energy-saving assessment results: Based on the energy-saving assessment results, understand the energy efficiency status, existing problems and potential energy-saving space of the base station air-conditioning system, and identify key areas and links with low energy efficiency; Formulate energy-saving recommendations: Based on the evaluation results, formulate specific energy-saving recommendations; Evaluate energy-saving proposals: Evaluate the energy-saving proposals developed, including technical feasibility, economic and environmental impact, and determine the priority and implementation sequence of the proposals; Develop implementation plan: Develop a detailed implementation plan based on the assessment results and energy-saving recommendations; Ensure that the plan is actionable and measurable so that the effectiveness of implementation can be monitored and evaluated; Implement energy-saving measures: gradually implement energy-saving measures according to the implementation plan, and monitor the system's operating status and energy-saving effects in real time during the implementation process; Monitoring and evaluation: After implementing energy-saving measures, continuously monitor the system's operating status and energy-saving effects.

7. An evaluation system for base station air conditioning energy saving evaluation according to claim 1, Features: The specific process of the remote monitoring and management module providing users with remote monitoring and management control functions is as follows: Establish a remote connection: determine the network connection method and IP address of the remote device; Establishing a network connection between remote devices and a monitoring center; Configure monitoring software or system: select the corresponding remote monitoring software or system; Configure monitoring software or system, set parameters, thresholds, and alarm mechanisms to be monitored; Data collection and transmission: Monitoring software or systems collect the operating status and performance data of remote devices in real time; Transmit the collected data to the monitoring center through the network; Data display and analysis: In the monitoring center, the operating status and performance data of remote devices are displayed through the user interface or visualization tools; Remote management and control: remote access and control of remote devices through monitoring software or systems; Respond to equipment fault alarms in real time and perform fault diagnosis and repair remotely.

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