A power environment monitoring system applied to an UPS power supply in a machine room

Abstract

The application discloses a kind of power environment monitoring systems applied to UPS power supply in computer room, it is related to environmental monitoring technical field, the application includes: UPS equipment environment inspection module, UPS equipment fault analysis module, UPS equipment fault analysis module and local database, by through dust concentration, wind speed, wind direction, line width and temperature five-dimensional data fusion, dynamic wear model is established, the impact of sand and dust to connecting line is simulated, to assess the harm of sand and dust to connecting line, can timely and accurately style connecting line hazard, guarantee the safety of the connecting line of UPS power supply equipment, simultaneously, by gray image analysis vertical direction jitter offset coefficient, vibration-soundprint composite diagnostic model is constructed in combination with operating decibel value, to reduce the failure rate of UPS power supply equipment.

Description

Technical Field

[0001] This invention relates to the field of environmental monitoring technology, specifically to a power environment monitoring system for UPS power supplies in computer rooms. Background Technology

[0002] UPS power supply equipment is widely used in computer rooms around the world. However, for UPS power supply equipment set up in extreme environments (such as deserts), the traditional environmental monitoring methods of temperature and voltage cannot guarantee the normal operation of the UPS power supply equipment. Therefore, it is necessary to study an environmental monitoring system for UPS power supply equipment in desert computer rooms.

[0003] Existing technologies, such as the invention patent application CN119298385A, disclose a power and environmental monitoring system for data center monitoring. This system includes: achieving efficient management of the data center, ensuring its safe and stable operation, performing timely power and environmental anomaly management, assisting maintenance personnel in quickly performing anomaly maintenance on data center equipment, improving equipment operational stability, reducing the burden on maintenance personnel, and enhancing the safety and energy efficiency of the data center. Another existing technology, such as the invention patent application CN208209626U, discloses an IoT-based UPS power supply monitoring system. This system eliminates the need for manual real-time computer monitoring, reducing labor costs and improving work efficiency. It enables real-time control of the UPS's power supply on / off via a mobile terminal and real-time acquisition of the UPS's location information. The system is low-cost and highly practical, and can be widely applied in the field of UPS monitoring technology.

[0004] As can be seen from the above solutions, current environmental monitoring systems for UPS power supplies lack sufficient attention to analyzing whether the lines are damaged or hazardous in the context of desert environments. In practical applications in desert data centers, the wiring is often directly exposed to the environment. Therefore, the connecting wires of the UPS power supply are highly susceptible to damage from sand and dust during charging and discharging. If the connecting wires themselves are also damaged, it can easily lead to charging and discharging failures and short circuits, reducing the safety of the UPS power supply. At the same time, there is insufficient attention paid to analyzing the vibration of the UPS power supply during operation to determine the direction of reinforcement. Due to the high and low temperature differences in the desert, the lifespan of the UPS power supply's reinforcement screws and other equipment will be reduced more quickly with use and the harsh environmental conditions, leading to severe swaying and abnormal noises in the UPS power supply, thereby increasing the failure rate of the UPS power supply. Summary of the Invention

[0005] The purpose of this invention is to provide a power environment monitoring system for UPS power supplies in computer rooms, which solves the problems existing in the background art.

[0006] To solve the above-mentioned technical problems, the present invention adopts the following technical solution: The present invention provides a power environment monitoring system for UPS power supplies in a computer room, including: a UPS equipment environment inspection module, used to obtain the charging and discharging status of each UPS equipment in the desert computer room at the monitoring time point, and to inspect each UPS equipment in the desert computer room.

[0007] The UPS equipment fault analysis module is used to analyze the wear and tear hazard coefficient of the connection lines of each UPS equipment in the desert data center, and to assess the operational vibration hazard coefficient of each charging UPS equipment in the desert data center in each monitoring direction.

[0008] The UPS equipment fault analysis module is used to screen problematic UPS equipment on each line in the desert data center and identify the reinforcement directions for each UPS equipment, and then perform line replacement and reinforcement treatments accordingly.

[0009] The beneficial effects of the present invention are as follows: (1) The UPS equipment environment inspection module of the present invention can obtain the data information of each UPS equipment in the desert computer room by regularly inspecting each UPS equipment in the desert computer room, which is convenient for subsequent analysis.

[0010] (2) The UPS equipment fault analysis module of the present invention establishes a dynamic wear model by fusing five-dimensional data of dust concentration, wind speed, wind direction, line width and temperature, simulates the impact of dust on the connection line, and thus assesses the harm of dust to the connection line. It can detect the hidden dangers of the connection line in a timely and accurate manner, and ensure the safety of the connection line of the UPS power supply equipment. At the same time, it analyzes the vertical jitter offset coefficient through grayscale image analysis and constructs a vibration-sound pattern composite diagnostic model by combining the operating decibel value, thereby reducing the failure rate of the UPS power supply equipment.

[0011] (3) The UPS equipment fault analysis module of the present invention ensures the normal operation of the UPS power supply equipment by timely performing corresponding maintenance on the problematic UPS equipment of each line in the desert computer room and the reinforcement direction of each UPS equipment. Attached Figure Description

[0012] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0013] Figure 1 This is a schematic diagram of the system modules of the present invention. Detailed Implementation

[0014] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0015] Reference Figure 1 As shown, the present invention provides a power environment monitoring system for UPS power supplies in a computer room, including: a UPS equipment environment inspection module, a UPS equipment fault analysis module, a UPS equipment fault analysis module, and a local database.

[0016] It should be noted that the UPS equipment environment inspection module is connected to the UPS equipment fault analysis module, the UPS equipment fault analysis module is connected to the UPS equipment fault analysis module, and the local database is connected to the UPS equipment environment inspection module, the UPS equipment fault analysis module, and the UPS equipment fault analysis module.

[0017] It should also be noted that the local database is used to store the monitoring duration and monitoring direction of each device, the charging power of the charging connection wires of each charging UPS device in the desert data center at the monitoring time point, the initial line width of each detection point in each direction, the suitable temperature value corresponding to each charging power range, the impact direction corresponding to each wind direction, the comparison of sand and dust concentration value, the comparison of wind speed value, the vertical direction of each device's monitoring direction, the initial operating decibel value of each UPS device in the desert data center, the threshold of the wear hazard coefficient of the connection line, and the threshold of the operating vibration hazard coefficient.

[0018] The UPS equipment environmental inspection module is used to obtain the charging and discharging status of each UPS device in the desert data center at the monitoring time point, and to inspect each UPS device in the desert data center.

[0019] In one specific embodiment, the method for obtaining the charging and discharging status of each UPS device belonging to the desert data center at the monitoring time point is as follows: the charging and discharging status of each UPS device belonging to the desert data center at the monitoring time point is obtained through the desert data center terminal.

[0020] In a specific embodiment of the present invention, the inspection method for each UPS device belonging to the desert data center is as follows: if the charging / discharging state of a certain UPS device belonging to the desert data center is charging, then the UPS device is marked as a charging UPS device; otherwise, the UPS device is marked as a discharging UPS device, thereby screening each charging UPS device and each discharging UPS device belonging to the desert data center.

[0021] By dispatching inspection robots to inspect the charging connection wires of each charging UPS device in the desert data center, the dust concentration, wind speed, wind direction, line width and temperature values ​​at each inspection point of the charging connection wires of each charging UPS device in the desert data center can be obtained. Similarly, the dust concentration, wind speed, wind direction, line width and line temperature values ​​at each inspection point of the discharging connection wires of each discharging UPS device in the desert data center can be obtained.

[0022] The monitoring duration and monitoring direction of each device are obtained from the local database. Grayscale images and operating decibel values ​​of each UPS device in the desert data center at each monitoring time point in each device monitoring direction are obtained within the monitoring duration.

[0023] In one specific embodiment, the method for obtaining the dust concentration, wind speed, wind direction, line width, and temperature values ​​at each detection point of the charging connection wires of each charging UPS device belonging to the desert data center is as follows: The dust concentration values ​​at each detection point of the charging connection wires of each charging UPS device belonging to the desert data center are obtained using a dust concentration sensor; the wind speed and wind direction at each detection point of the charging connection wires of each charging UPS device belonging to the desert data center are obtained using an anemometer; and the line width and temperature values ​​at each detection point of the charging connection wires of each charging UPS device belonging to the desert data center are obtained using a length measuring instrument and a temperature sensor installed on the inspection robot.

[0024] In one specific embodiment, the method for acquiring grayscale images and operating decibel values ​​of each UPS device belonging to the desert data center at each monitoring time point in each monitoring direction during the monitoring period is as follows: acquiring grayscale images and operating decibel values ​​of each UPS device belonging to the desert data center at each monitoring time point in each monitoring direction during the monitoring period through a camera and decibel monitor installed on the inspection robot.

[0025] The UPS equipment environmental inspection module of this invention regularly inspects each UPS device in the desert data center to obtain various data information of each UPS device, which is convenient for subsequent analysis.

[0026] The UPS equipment fault analysis module is used to analyze the wear and tear hazard coefficient of the connection lines of each UPS equipment in the desert data center, and to assess the operational vibration hazard coefficient of each charging UPS equipment in the desert data center in each monitoring direction.

[0027] It should be noted that the monitoring direction of each device is obtained by taking the UPS device as the center, arbitrarily selecting half of 180°, and dividing the 180° equally into 10 parts.

[0028] In a specific embodiment of the present invention, the analysis method for the wear hazard coefficient of the connection lines of each UPS device belonging to the desert data center is as follows: based on the line width and temperature value of each detection point of the charging connection wire of each charging UPS device belonging to the desert data center in each direction, the line deformation hazard coefficient of each detection point of the charging connection wire of each charging UPS device belonging to the desert data center in each direction is calculated; and based on the sand dust concentration value, wind speed value, and wind direction of each detection point of the charging connection wire of each charging UPS device belonging to the desert data center, the wear hazard coefficient of the connection lines of the charging connection wire of each charging UPS device belonging to the desert data center is analyzed.

[0029] Similarly, the wear and tear hazard coefficient of the discharge connection wires of each discharge UPS equipment in the desert computer room is analyzed.

[0030] The wear and tear hazard coefficients of the connection lines of all charging UPS equipment and all discharging UPS equipment in the desert data center are combined into the wear and tear hazard coefficient of the connection lines of all UPS equipment in the desert data center.

[0031] In a specific embodiment of the present invention, the method for calculating the line deformation hazard coefficient of each detection point in each direction of the charging connection wires of each charging UPS equipment belonging to the desert data center is as follows: The charging power of the charging connection wires of each charging UPS equipment belonging to the desert data center at the monitoring time point and the initial line width 'a' of each detection point in each direction are obtained from the local database. xni The suitable temperature values ​​corresponding to each charging power range are mapped to the suitable temperature values ​​of the charging connection wires of each charging UPS device in the desert data center. x , where x represents the number of each charging UPS device, x = 1, 2, ..., y, where y is a positive integer greater than 2, n represents the number of each detection point, n = 1, 2, ..., m, where m is a positive integer greater than 2, and i represents the number of each direction, i = 1, 2, ..., j, where j is a positive integer greater than 2.

[0032] Based on the line width c of each detection point of the charging connection cable of each charging UPS equipment in the desert data center in each direction. xni and temperature value d xni Calculate the line deformation hazard coefficient in each direction at each detection point of the charging connection wires of each UPS device in the desert data center.

[0033] In a specific embodiment of the present invention, the method for analyzing the wear hazard coefficient of the charging connection wires of each charging UPS device in the desert data center is as follows: Obtain the impact direction corresponding to each wind direction from the local database; based on the wind direction at each detection point of the charging connection wires of each charging UPS device in the desert data center and the line deformation hazard coefficient in each direction, extract the line deformation hazard coefficient f of each detection point of the charging connection wires of each charging UPS device in the desert data center in each impact direction. xnp and the line deformation hazard coefficient k in each remaining direction xnt , where p represents the number of each impact direction, p = 1, 2, ..., q, q is a positive integer greater than 2, and t represents the number of each remaining direction, t = 1, 2, ..., w, w is a positive integer greater than 2.

[0034] It should be noted that, since the cross-section of the power line is circular, the wind direction will always affect the semi-circular position of the cross-section of the power line, i.e., 180°. The direction affected by the sandstorm wind is selected from all directions as the impact direction.

[0035] Calculate the target line deformation hazard coefficient at each detection point of the charging connection wires of each charging UPS device in the desert data center in each impact direction, and calculate the connection line wear hazard coefficient of the charging connection wires of each charging UPS device in the desert data center.

[0036] In a specific embodiment of the present invention, the method for calculating the target line deformation hazard coefficient of each detection point of the charging connection wires of each charging UPS device belonging to the desert data center in each impact direction is as follows: Obtain the comparison dust concentration value A and the comparison wind speed value B from the local database, and calculate the dust concentration value g of each detection point of the charging connection wires of each charging UPS device belonging to the desert data center. xn Wind speed value h xn Calculate the wear and tear coefficient of the charging connection cables for each UPS device in the desert data center.

[0037] It should be noted that the comparison of dust concentration values ​​and wind speed values ​​are only for comparison purposes and can be set by the staff themselves.

[0038] In a specific embodiment of the present invention, the method for evaluating the operational jitter hazard coefficient of each charging UPS device in the desert data center in each monitoring direction is as follows: The vertical direction of each monitoring direction is obtained from a local database; based on the grayscale images of each UPS device in the desert data center at each monitoring time point in each monitoring direction, the jitter offset coefficient ε of each UPS device in the desert data center in the vertical direction of each monitoring direction is analyzed. NI Where N represents each UPS device, N = 1, 2, ..., M, where M is a positive integer greater than 2, and I represents the monitoring direction number of each device, I = 1, 2, ..., J, where J is a positive integer greater than 2.

[0039] Retrieve the initial operating decibel values ​​(G) of each UPS device in the desert data center from the local database. NI Based on the operating decibel values ​​H of each UPS device in the desert data center at each monitoring time point in each monitoring direction, NI Calculate the operational vibration hazard coefficient of each charging UPS device in the desert data center in each monitoring direction.

[0040] In a specific embodiment of the present invention, the specific analysis method for analyzing the jitter offset coefficient of each UPS device in the vertical direction of each device monitoring direction in the desert data center is as follows: based on the grayscale images of each UPS device in the desert data center at each monitoring time point in each device monitoring direction, extract the grayscale value E of each pixel of the grayscale image of each UPS device in the vertical direction of each device monitoring time point in the desert data center. NITP , where T represents the number of each monitoring time point, T = 1, 2, ..., W, where W is a positive integer greater than 2, and P represents the number of each pixel point, P = 1, 2, ..., Q, where Q is a positive integer greater than 2.

[0041] Calculate the jitter offset coefficient of each UPS device in the desert data center in the vertical direction of each device's monitoring direction.

[0042] The UPS equipment fault analysis module of this invention establishes a dynamic wear model by fusing five-dimensional data of dust concentration, wind speed, wind direction, line width, and temperature. This model simulates the impact of dust on the connection lines, thereby assessing the damage caused by dust to the connection lines. It can promptly and accurately identify potential hazards in the connection lines, ensuring the safety of the UPS power supply equipment's connection lines. At the same time, it analyzes the vertical jitter offset coefficient through grayscale image analysis and constructs a vibration-acoustic composite diagnostic model by combining it with the operating decibel value, thereby reducing the failure rate of the UPS power supply equipment.

[0043] The UPS equipment fault analysis module is used to screen the problematic UPS equipment in each line of the desert data center and the reinforcement direction of each UPS equipment, and to perform line replacement and reinforcement treatment on them respectively.

[0044] In a specific embodiment of the present invention, the screening method for problematic UPS devices and reinforcement directions of each UPS device belonging to the desert data center is as follows: obtain the threshold value of the wear hazard coefficient of the connection line from the local database; if the wear hazard coefficient of the connection line of a certain UPS device belonging to the desert data center is greater than the threshold value of the wear hazard coefficient of the connection line, then mark the UPS device as a problematic UPS device, thereby screening problematic UPS devices belonging to the desert data center.

[0045] The system retrieves the operating vibration hazard coefficient threshold from the local database. If the operating vibration hazard coefficient of a certain charging UPS device in the desert data center is greater than the operating vibration hazard coefficient threshold in a certain device monitoring direction, then the monitoring direction of that device is marked as the device reinforcement direction, thereby filtering the reinforcement directions of each UPS device in the desert data center.

[0046] In a specific embodiment of the present invention, the line replacement and reinforcement process is specifically carried out by stopping the operation of each problematic UPS device in the desert data center and replacing the corresponding charging or discharging connection line according to the charging and discharging status of each problematic UPS device in the desert data center.

[0047] Send the reinforcement instructions for each UPS device in the desert data center to the person in charge of the data center.

[0048] The UPS equipment fault analysis module of this invention ensures the normal operation of the UPS power supply equipment by promptly performing corresponding maintenance on the problematic UPS equipment of each line in the desert computer room and on the reinforcement direction of each UPS equipment.

[0049] The above content is merely an example and illustration of the concept of the present invention. Those skilled in the art can make various modifications or additions to the specific embodiments described, or use similar methods to replace them, as long as they do not deviate from the concept of the invention or exceed the scope defined by the present invention, and all such modifications and additions should fall within the protection scope of the present invention.

Claims

1. A power environment monitoring system for UPS power supplies in a computer room, characterized in that, include: The UPS equipment environmental inspection module is used to obtain the charging and discharging status of each UPS device in the desert data center at the monitoring time point, and to inspect each UPS device in the desert data center. The UPS equipment fault analysis module is used to analyze the wear and tear hazard coefficient of the connection lines of each UPS equipment in the desert data center, and to assess the operational jitter hazard coefficient of each charging UPS equipment in the desert data center in each monitoring direction. The UPS equipment fault analysis module is used to screen the problematic UPS equipment in each line of the desert data center and the reinforcement direction of each UPS equipment, and to perform line replacement and reinforcement treatment respectively. The specific inspection method for the UPS equipment belonging to the desert data center is as follows: if the charging / discharging state of a certain UPS equipment belonging to the desert data center is charging, then the UPS equipment is marked as a charging UPS equipment; otherwise, the UPS equipment is marked as a discharging UPS equipment, thereby screening the charging UPS equipment and discharging UPS equipment belonging to the desert data center. By dispatching inspection robots to inspect the charging connection wires of each charging UPS device in the desert data center, the dust concentration, wind speed, wind direction, line width and temperature values ​​of each detection point of the charging connection wires of each charging UPS device in the desert data center can be obtained. Similarly, the dust concentration, wind speed, wind direction, line width and line temperature values ​​of each detection point of the discharging connection wires of each discharging UPS device in the desert data center can be obtained. The monitoring duration and monitoring direction of each device are obtained from the local database. Grayscale images and operating decibel values ​​of each UPS device in the desert data center at each monitoring time point in each device monitoring direction are obtained within the monitoring duration. The analysis of the wear hazard coefficient of the connection lines of each UPS equipment in the desert data center is specifically conducted as follows: based on the line width and temperature value of each detection point of the charging connection wires of each charging UPS equipment in the desert data center in each direction, the line deformation hazard coefficient of each detection point of the charging connection wires of each charging UPS equipment in the desert data center in each direction is calculated; and based on the sand dust concentration value, wind speed value, and wind direction of each detection point of the charging connection wires of each charging UPS equipment in the desert data center, the wear hazard coefficient of the connection lines of the charging connection wires of each charging UPS equipment in the desert data center is analyzed. Similarly, the wear and tear hazard coefficient of the discharge connection wires of each discharge UPS device in the desert computer room should be analyzed. The wear and tear hazard coefficients of the connection lines of all charging UPS equipment and all discharging UPS equipment in the desert data center are combined into the wear and tear hazard coefficient of the connection lines of all UPS equipment in the desert data center. The calculation method for the line deformation hazard coefficient of each detection point in each direction of the charging connection wires of each charging UPS equipment in the desert data center is as follows: The charging power of the charging connection wires of each charging UPS equipment in the desert data center at the monitoring time point and the initial line width of each detection point in each direction are obtained from the local database. The suitable temperature values ​​corresponding to each charging power range are mapped to the suitable temperature values ​​of the charging connection wires of each charging UPS device in the desert data center. Where x represents the number of each charging UPS device, y is a positive integer greater than 2, and n represents the number of each detection point. m is a positive integer greater than 2, and i represents the number of each direction. j is a positive integer greater than 2; Based on the line width in each direction of each detection point of the charging connection cable of each UPS device belonging to the desert data center. and temperature value Calculate the line deformation hazard coefficient in each direction at each detection point of the charging connection wires of each UPS device in the desert data center. ; The analysis of the wear hazard coefficient of the charging connection wires of each UPS device in the desert data center is conducted using the following method: The impact direction corresponding to each wind direction is obtained from the local database. Based on the wind direction and the line deformation hazard coefficient in each direction at each detection point of the charging connection wires of each UPS device in the desert data center, the line deformation hazard coefficient in each impact direction at each detection point of the charging connection wires of each UPS device in the desert data center is extracted. and the line deformation hazard coefficient in each remaining direction Where p represents the number of each impact direction, q is a positive integer greater than 2, and t represents the number of each remaining direction. w is a positive integer greater than 2; Calculate the target line deformation hazard coefficient at each detection point of the charging connection wires of each charging UPS device in the desert data center in each impact direction, and calculate the connection line wear hazard coefficient of the charging connection wires of each charging UPS device in the desert data center. ; The specific calculation method for calculating the target line deformation hazard coefficient of each detection point of the charging connection wires of each charging UPS equipment in the desert data center in each impact direction is as follows: Obtain the comparison dust concentration value A and the comparison wind speed value B from the local database, and calculate the dust concentration value of each detection point of the charging connection wires of each charging UPS equipment in the desert data center. Wind speed value Calculate the wear and tear coefficient of the charging connection cables for each UPS device in the desert data center. ; The specific evaluation method for assessing the operational jitter hazard coefficient of each charging UPS device in the desert data center in each monitoring direction is as follows: The vertical direction of each device's monitoring direction is obtained from the local database. Based on the grayscale images of each UPS device in the desert data center at each monitoring time point in each monitoring direction, the jitter offset coefficient of each UPS device in the desert data center in the vertical direction of each monitoring direction is analyzed. Where N represents each UPS device, M is a positive integer greater than 2, and I represents the number of the monitoring direction of each device. J is a positive integer greater than 2; Retrieve the initial operating decibel values ​​of each UPS device in the desert data center from the local database. Based on the operating decibel values ​​of each UPS device in the desert data center at each monitoring time point in each monitoring direction, Calculate the operational vibration hazard coefficient of each charging UPS device in the desert data center in each monitoring direction. ; The analysis of the jitter offset coefficient of each UPS device in the desert data center in the vertical direction of each monitoring direction is specifically performed as follows: Based on the grayscale images of each UPS device in the desert data center at each monitoring time point in each monitoring direction, the grayscale values ​​of each pixel in the grayscale images of each UPS device in the vertical direction of each monitoring time point in each monitoring direction are extracted. Where T represents the number of each monitoring time point. W is a positive integer greater than 2, and P represents the number of each pixel. Q is a positive integer greater than 2; Calculate the jitter offset coefficient of each UPS device in the desert data center in the vertical direction of each device's monitoring direction. .

2. The power environment monitoring system for UPS power supplies in a computer room according to claim 1, characterized in that, The specific screening method for identifying problematic UPS devices on each line within the desert data center and the reinforcement directions for each UPS device is as follows: The threshold for the wear and tear hazard coefficient of the connection line is obtained from the local database. If the wear and tear hazard coefficient of the connection line of a UPS device belonging to the desert data center is greater than the threshold for the wear and tear hazard coefficient of the connection line, the UPS device is marked as a UPS device with line problems, thereby filtering out all UPS devices with line problems belonging to the desert data center. The system retrieves the operating vibration hazard coefficient threshold from the local database. If the operating vibration hazard coefficient of a certain charging UPS device in the desert data center is greater than the operating vibration hazard coefficient threshold in a certain device monitoring direction, then the monitoring direction of that device is marked as the device reinforcement direction, thereby filtering the reinforcement directions of each UPS device in the desert data center.

3. The power environment monitoring system for UPS power supplies in a computer room according to claim 1, characterized in that, The specific methods for replacing and reinforcing the lines are as follows: Stop the operation of the UPS equipment with problems on each line in the desert data center, and replace the corresponding charging or discharging connection lines according to the charging and discharging status of the UPS equipment with problems on each line in the desert data center. Send the reinforcement instructions for each UPS device in the desert data center to the person in charge of the data center.

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