A monitoring system for medium voltage uninterruptible power supply device

Abstract

The present invention relates to a medium voltage uninterruptible power supply monitoring system, belonging to the field of intelligent monitoring technology, comprising an uninterruptible power supply, a collection and classification module, a data processing module, an adjustment control module, a button module, a fault safety module, an LCD display module and a cloud server; the present invention effectively analyzes each group of information record tables and draws relevant curve graphs through a CNN deep learning model, can analyze various data more intuitively and accurately, and at the same time ensure the orderliness of the data, improve the data processing efficiency of the system, improve the use experience of staff, can accurately and timely control the uninterruptible power supply of the fault, and at the same time promptly feed back maintenance prompts to maintenance personnel, and forcibly interrupt the operation status of the device, greatly reduce the risk factor of device failure, and ensure the safety of staff.

Description

Technical Field

[0001] The invention belongs to the technical field of intelligent monitoring, and in particular, relates to a monitoring system for a medium-voltage uninterruptible power supply device. Background Art

[0002] Uninterruptible power supply devices are mainly used for some equipment that require high power supply stability. They mainly rely on an uninterruptible power supply with an energy storage device to provide power. When the mains input is normal, the uninterruptible power supply stabilizes the mains and supplies it to the load. At this time, the uninterruptible power supply is an AC voltage stabilizer, and it also charges the battery inside the machine; when the mains power is interrupted, the uninterruptible power supply immediately uses the DC power of the battery to continue to supply 220V AC power to the load through the inverter switching conversion method, so that the load maintains normal operation and protects the load software and hardware from damage. Uninterruptible power supply equipment can usually provide protection against overvoltage or undervoltage. As computer application systems have higher and higher requirements for power supply, uninterruptible power supplies are increasingly valued and gradually developed into a power protection system with functions such as voltage stabilization, frequency stabilization, filtering, anti-electromagnetic and radio frequency interference, and anti-voltage surfing.

[0003] The existing medium-voltage uninterruptible power supply device monitoring system cannot process data in an orderly manner, which reduces data processing efficiency and reduces the user experience of staff. In addition, the existing medium-voltage uninterruptible power supply device monitoring system cannot accurately and timely control the uninterruptible power supply device with faults, which increases the risk factor of failure of the uninterruptible power supply device and endangers the safety of staff. For this reason, we propose a medium-voltage uninterruptible power supply device monitoring system. Summary of the invention

[0004] The purpose of the present invention is to provide a medium voltage uninterruptible power supply device monitoring system, which solves the problems of low data processing efficiency, poor user experience and high risk factor existing in the prior art.

[0005] The purpose of the present invention can be achieved through the following technical solutions:

[0006] A medium voltage uninterruptible power supply device monitoring system, comprising an uninterruptible power supply device, a collection and classification module, a data processing module, an adjustment control module, a button module, a fault safety module, an LCD display module and a cloud server;

[0007] The data processing module is used to optimize and analyze each group of collected data;

[0008] The fail-safe module is used to receive fail-safe data uploaded by the staff and to perform fail-safe protection on the uninterruptible power supply device.

[0009] As a further solution of the present invention: the uninterruptible power supply device is specifically a device with high requirements on power supply stability;

[0010] The collection and classification module is used to communicate with each group of uninterruptible power devices, collect information from each device, and classify and filter the collected data. The specific steps of classification and filtering are as follows:

[0011] Step 1: Collect the transmission node information of each UPS, confirm the location of each UPS group, and number each UPS group;

[0012] Step 2: Divide each area, generate the same number of information record tables, and enter the number of each group of uninterruptible power supply devices into the information record table of the corresponding area;

[0013] Step 3: Collect the operation information of each group of uninterruptible power supply devices at the same time, and enter the collected information into the relevant information record table.

[0014] As a further solution of the present invention: the key module is used to convey the staff's instructions and values ​​to the data processing module;

[0015] The data processing module is used to receive the information record table and analyze and feedback it. The specific steps of the analysis and feedback are as follows:

[0016] Step (1): The data processing module collects each group of information record tables and builds a data storage library based on the MySql database;

[0017] Step (2): construct a CNN deep learning model, and import the instructions or values ​​entered by the staff into the CNN deep learning model for parameter optimization;

[0018] Step (3): The CNN deep learning model extracts the data in the information record table, analyzes each group of data by optimizing the logical level of nesting and screening and the number of traversals, draws the corresponding curve graph, performs data analysis on the drawn curve graph, and records the number of the uninterruptible power supply device with abnormal curve trend;

[0019] Step (4): receiving adjustment information fed back by the adjustment control module in real time, and sending a start instruction to the fail-safe module when there is an uninterruptible power supply device that cannot be adjusted.

[0020] As a further solution of the present invention: the adjustment control module is used to receive the device number sent by the data processing module and perform operation adjustment on the relevant device. The specific steps of the operation adjustment are as follows:

[0021] Step 1: Adjust the control module to communicate with each group of uninterruptible devices, and screen each group of uninterruptible devices by device number;

[0022] Step 2: Close the communication channel of the UPS without abnormalities, and at the same time interact with the UPS with abnormalities and capture their real-time operating status;

[0023] Step 3: Adjust the control module to build a solution database based on the solution uploaded by the staff, connect to the Internet, and collect abnormal status of the UPS to build a status analysis library;

[0024] Step 4: Compare the captured running status with the abnormal status collected in the status analysis library. When the same information exists, the corresponding solution is captured from the solution database and executed;

[0025] Step 5: If there is no relevant solution, connect to the Internet for communication, search for relevant abnormal state solutions from the Internet, execute the solution to repair the abnormality of the uninterruptible power supply device, and enter the solution into the solution database.

[0026] As a further solution of the present invention: the LCD display module is used to provide a user interface display for the staff, and at the same time receive the processing results of the data processing module, and inform the staff of the results through text words and numerical display;

[0027] The cloud server is used to receive the processing results of the data processing module and store them in order.

[0028] As a further solution of the present invention: the fail-safe module is used to receive a startup instruction and perform troubleshooting on the relevant uninterruptible power supply device, and the specific steps of the troubleshooting are as follows:

[0029] S1: After receiving the start command, the fail-safe module outputs the corresponding control signal according to the requirements originally input by the user in advance;

[0030] S2: At the same time, the fault safety module forcibly interrupts the operation status of the relevant uninterruptible power supply device, collects the operation parameters of the uninterruptible power supply device, and constructs an analysis model to analyze the cause of the failure of the device;

[0031] S3: Feedback the location of the device and the cause of the failure to the maintenance personnel, and monitor the repair progress in real time. After the repair is completed, the uninterruptible power supply device is started and the communication connection with the data processing module is closed, so that it can communicate with the fail-safe module in a one-way manner;

[0032] S4: The fail-safe module analyzes the operating parameters transmitted by the uninterruptible power supply device, and when confirming that the uninterruptible power supply device operates normally, enables the uninterruptible power supply device to establish a normal communication connection with the data processing module.

[0033] Beneficial effects of the present invention:

[0034] 1. The present invention is provided with a data processing module, and the collection and classification module classifies each group of uninterruptible power supply devices according to the region, and at the same time numbers each group of uninterruptible power supply devices and enters them into the information recording table. The data processing module collects each group of information recording tables, and at the same time builds a data storage library based on the MySql database, and builds a CNN deep learning model, and imports the instructions or numerical values ​​input by the staff into the CNN deep learning model for parameter optimization. The CNN deep learning model extracts the data in the information recording table, analyzes each group of data by optimizing the logical level of nesting and screening and the number of traversal times, and draws the corresponding curve graph, performs data analysis on the drawn curve graph, and records the number of the uninterruptible power supply device with abnormal curve trend. Through the CNN deep learning model, each group of information recording tables is effectively analyzed and related curve graphs are drawn, so that each data can be analyzed more intuitively and accurately, while ensuring the orderliness of the data, improving the data processing efficiency of the system, and improving the use experience of the staff.

[0035] 2. The present invention is provided with a fault safety module. When the adjustment control module cannot repair the uninterruptible power supply device, the data processing module sends a start instruction to the fault safety module. After receiving the start instruction, the fault safety module outputs a corresponding control signal according to the requirements input in advance by the user. At the same time, the fault safety module forcibly interrupts the operation status of the relevant uninterruptible power supply device, collects the operation parameters of the uninterruptible power supply device, and constructs an analysis model to analyze the cause of the failure of the device. At the same time, the location of the device and the cause of the failure are fed back to the maintenance personnel, and the repair progress is monitored in real time. After the repair is completed, the uninterruptible power supply device is started, and the communication connection between it and the data processing module is closed, so that it can communicate with the fault safety module in a one-way manner, which can accurately and timely control the uninterruptible power supply device with a fault, and timely feed back the maintenance prompt to the maintenance personnel, and forcibly interrupt the operation status of the device, thereby greatly reducing the risk factor of device failure and ensuring the safety of the staff. BRIEF DESCRIPTION OF THE DRAWINGS

[0036] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for describing the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

[0037] Figure 1 The system block diagram of a medium voltage uninterruptible power supply device monitoring system of the present invention. DETAILED DESCRIPTION

[0038] 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.

[0039] Example 1

[0040] See also Figure 1 As shown, the present invention is a medium voltage uninterruptible power supply device monitoring system, including an uninterruptible power supply device, a collection and classification module, a data processing module, an adjustment control module, a button module, a fault safety module, an LCD display module and a cloud server.

[0041] Uninterruptible power supply devices are specifically devices that require high power supply stability.

[0042] The collection and classification module is used to communicate with each group of uninterruptible power devices, collect information from each device, and classify and screen the collected data.

[0043] Specifically, the collection and classification module collects the transmission node information of each uninterruptible power supply device, confirms the location of each group of uninterruptible power supplies, numbers each group of uninterruptible power supplies, divides each area, generates the same number of information recording tables, and enters the number of each group of uninterruptible power supplies into the information recording table of the corresponding area. At the same time, it collects the operating information of each group of uninterruptible power supplies, and enters the collected information into the relevant information recording table.

[0044] The key module is used to transmit the staff's instructions and values ​​to the data processing module.

[0045] The data processing module is used to receive the information record table and analyze and feedback it.

[0046] Specifically, first, the data processing module collects each group of information record tables, and at the same time builds a data repository based on the MySql database, and builds a CNN deep learning model by itself, and imports the instructions or values ​​entered by the staff into the CNN deep learning model for parameter optimization. The CNN deep learning model extracts the data in the information record table, analyzes each group of data by optimizing the logical level of nesting and screening and the number of traversal times, and draws the corresponding curve graph at the same time. The drawn curve graph is analyzed, and the number of the uninterruptible power supply device with abnormal curve trend is recorded, and the adjustment information feedback from the adjustment control module is received in real time. When there is an uninterruptible power supply device that cannot be adjusted, a startup instruction is sent to the fault safety module. Through the CNN deep learning model, each group of information record tables is effectively analyzed and related curve graphs are drawn, which can analyze each data more intuitively and accurately, while ensuring the orderliness of the data, improving the data processing efficiency of the system, and improving the user experience of the staff.

[0047] Example 2

[0048] See also Figure 1 As shown, the present invention is a medium voltage uninterruptible power supply device monitoring system, including an uninterruptible power supply device, a collection and classification module, a data processing module, an adjustment control module, a button module, a fault safety module, an LCD display module and a cloud server.

[0049] The whole control module is used to receive the device number sent by the data processing module and adjust the operation of the relevant device.

[0050] Specifically, the control module is adjusted to establish communication connections with each group of uninterruptible devices, and each group of uninterruptible devices is screened by device number, and the communication channel with the uninterruptible devices without abnormalities is closed, and data is exchanged with the uninterruptible devices with abnormalities, and their real-time operating status is captured. The control module is adjusted to build a solution database based on the solutions uploaded by the staff, and is connected to the Internet for communication, and the abnormal status of the uninterruptible devices is collected to build a status analysis library, and the captured operating status is compared with the abnormal status collected in the status analysis library. When the same information exists, the corresponding solution is captured from the solution database and executed. If there is no relevant solution, the communication connection is made to the Internet, and the relevant abnormal status solution is searched from the Internet, and the solution is executed to repair the abnormality of the uninterruptible device, and the solution is entered into the solution database.

[0051] The LCD display module is used to provide the staff with a user interface display, receive the processing results of the data processing module, and inform the staff of the results through text words and numerical display.

[0052] The cloud server is used to receive the processing results of the data processing module and store them in order.

[0053] The fail-safe module is used to receive the startup command and perform troubleshooting on the relevant uninterruptible power supply device.

[0054] Specifically, after receiving the start-up instruction, the fault safety module outputs the corresponding control signal according to the requirements originally input by the user in advance. At the same time, the fault safety module forcibly interrupts the operating status of the relevant uninterruptible power supply device, collects the operating parameters of the uninterruptible power supply device, and builds an analysis model to analyze the cause of the failure of the device, and then feeds back the location of the device and the cause of the failure to the maintenance personnel, and monitors its repair progress in real time. After the repair is completed, the uninterruptible power supply is started, and the communication connection between it and the data processing module is closed, so that it communicates with the fault safety module in a one-way manner. The fault safety module analyzes the operating parameters transmitted by the uninterruptible power supply device. When it is confirmed that the uninterruptible power supply device is operating normally, it is connected to the data processing module for normal communication, which can accurately and timely control the faulty uninterruptible power supply device, and timely feed back maintenance prompts to maintenance personnel, and forcibly interrupt the operating status of the device, greatly reducing the risk factor of device failure and ensuring the safety of staff.

[0055] In the description of the specification, the description with reference to the terms "one embodiment", "example", "specific example", 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 representation of the above terms does not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any one or more embodiments or examples in a suitable manner.

[0056] 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 by the claims, they should all fall within the protection scope of the present invention.

Claims

1. A medium voltage uninterruptible power supply monitoring system, characterized in that: It includes an uninterruptible power supply device, a collection and classification module, a data processing module, an adjustment control module, a button module, a fail-safe module, an LCD display module and a cloud server; The data processing module is used to optimize and analyze each group of collected data; The fail-safe module is used to receive fail-safe data uploaded by the staff and to perform fail-safe protection on the uninterruptible power supply device; The key module is used to transmit the staff's instructions and values ​​to the data processing module; The data processing module is used to receive the information record table and analyze and feedback it. The specific steps of the analysis and feedback are as follows: Step (1): The data processing module collects each set of information record tables and builds a data repository based on the MySql database; Step (2): Build a CNN deep learning model and import the instructions or values ​​entered by the staff into the CNN deep learning model for parameter optimization; Step (3): The CNN deep learning model extracts data from the information record table, analyzes each group of data by optimizing the logical level of nesting and screening and the number of traversals, draws a corresponding curve graph, performs data analysis on the drawn curve graph, and records the number of the uninterruptible power supply device with abnormal curve trend; Step (4): receiving adjustment information fed back by the adjustment control module in real time, and sending a start instruction to the fail-safe module when there is an uninterruptible power supply device that cannot be adjusted; The adjustment control module is used to receive the device number sent by the data processing module and perform operation adjustment on the relevant device. The specific steps of the operation adjustment are as follows: Step 1: Adjust the control module to communicate with each group of uninterruptible devices, and screen each group of uninterruptible devices by device number; Step 2: Close the communication channel of the UPS without abnormalities, and at the same time interact with the UPS with abnormalities and capture their real-time operating status; Step 3: Adjust the control module to build a solution database based on the solution uploaded by the staff, connect to the Internet, and collect abnormal status of the UPS to build a status analysis library; Step 4: Compare the captured running status with the abnormal status collected in the status analysis library. When the same information exists, the corresponding solution is captured from the solution database and executed; Step 5: If there is no relevant solution, connect to the Internet for communication, search for relevant abnormal state solutions from the Internet, execute the solution to repair the abnormality of the uninterruptible power supply device, and enter the solution into the solution database.

2. A medium voltage uninterruptible power supply monitoring system according to claim 1, characterized in that: The uninterruptible power supply device is specifically a device that has high requirements for power supply stability; The collection and classification module is used to communicate with each group of uninterruptible power devices, collect information from each device, and classify and filter the collected data. The specific steps of classification and filtering are as follows: Step 1: Collect the transmission node information of each UPS, confirm the location of each UPS group, and number each UPS group; Step 2: Divide each area, generate the same number of information record tables, and enter the number of each group of uninterruptible power supply devices into the information record table of the corresponding area; Step 3: Collect the operation information of each group of uninterruptible power supply devices at the same time, and enter the collected information into the relevant information record table.

3. The medium voltage uninterruptible power supply monitoring system according to claim 1, characterized in that: The LCD display module is used to provide a user interface for the staff, receive the processing results of the data processing module, and inform the staff of the results through text words and numerical display; The cloud server is used to receive the processing results of the data processing module and store them in order.

4. The medium voltage uninterruptible power supply monitoring system according to claim 1, characterized in that: The fail-safe module is used to receive the startup instruction and perform troubleshooting on the relevant uninterruptible power supply device. The specific steps of the troubleshooting are as follows: S1: After receiving the start command, the fail-safe module outputs the corresponding control signal according to the requirements originally input by the user in advance; S2: At the same time, the fault safety module forcibly interrupts the operation status of the relevant uninterruptible power supply device, collects the operation parameters of the uninterruptible power supply device, and constructs an analysis model to analyze the cause of the failure of the device; S3: Feedback the location of the device and the cause of the failure to the maintenance personnel, and monitor the repair progress in real time. After the repair is completed, the uninterruptible power supply device is started and the communication connection with the data processing module is closed, so that it can communicate with the fail-safe module in a one-way manner; S4: The fail-safe module analyzes the operating parameters transmitted by the uninterruptible power supply device, and when confirming that the uninterruptible power supply device operates normally, enables the uninterruptible power supply device to establish a normal communication connection with the data processing module.

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