Safety monitoring system of battery detection equipment

Abstract

The invention provides a safety monitoring system of battery detection equipment, which comprises the battery detection equipment and a safety monitoring system, and is characterized in that the safety monitoring system is connected with program installation package management software of the battery detection equipment through the Ethernet or the wireless network or the Internet; the safety monitoring system comprises a human-computer interaction interface, a central processing control module and a functional module, the central processing control module calls the functional module to execute a corresponding instruction according to a command of a user, and the functional module feeds back a processing result to the central processing control module after finishing the instruction. The central processing control module triggers a corresponding early warning according to a processing result and displays the early warning on a human-computer interaction interface; the method has the advantages that real-time monitoring and early warning can be achieved in the testing process, a user can conveniently perceive and process abnormity in time, and the user experience is improved; and the consistency of software and hardware of all equipment under the computer can be visually observed through a human-computer interaction interface.

Description

Technical Field

[0001] The present invention relates to the technical field of battery testing, and particularly to a safety monitoring system for a battery detection device. Background Art

[0002] With the booming development of the new energy industry, while battery technology is constantly iterating and upgrading, the market demand is also increasing. Before leaving the factory, batteries need to be tested by battery detection equipment, which includes a client, a server, a database, a middle computer, and a lower computer. However, various abnormal problems may occur during the testing process. Since there is no monitoring and early warning, users fail to handle the abnormalities in a timely manner, which has a great impact on users and reduces the user experience. For example, abnormal situations such as no data, missing data, or jumping numbers may occur due to the abnormality of the middle computer or the server; and because customer users can manually configure some configuration parameters of the client and the server, configuration errors or unreasonable configurations may occasionally occur; moreover, it is impossible to intuitively and clearly see the consistency of the software and hardware of all devices under this computer. Summary of the Invention

[0003] The purpose of the present invention is to provide a new safety monitoring system for a battery detection device to solve the above-mentioned technical problems. During the testing process, it can monitor and give early warnings in real time, facilitating users to perceive and handle abnormalities in a timely manner, and improving the user experience; the test data monitoring can discover problems such as missing data or jumping numbers in real time, give early warnings in a timely manner and take measures to avoid the impact of incomplete data on the test results, and enhance the management and risk control capabilities of test data; the configuration analysis report can enable users to understand configuration problems and potential risks in a timely manner, thereby ensuring the stable operation of the system; through the human-computer interaction interface, the consistency of the software and hardware of all devices under this computer can be intuitively and clearly seen.

[0004] The present invention is realized through the following technical solutions: A safety monitoring system for a battery detection device, including the battery detection device and the safety monitoring system. The safety monitoring system is connected to the program installation package management software of the battery detection device through Ethernet or wireless network or Internet; the safety monitoring system includes a human-machine interaction interface, a central processing control module and function modules. The human-machine interaction interface is signal-connected to the central processing control module, and the central processing control module is signal-connected to the function modules. The central processing control module calls the function modules according to the user's command to execute corresponding instructions. After the function modules complete the instructions, the processing results are fed back to the central processing control module, and then the central processing control module triggers corresponding warnings according to the processing results and displays them on the human-machine interaction interface; the function modules include a test data monitoring module, a real-time anomaly monitoring module, an inspection and update module, a program upgrade module and a configuration analysis module. The test data monitoring module, the real-time anomaly monitoring module, the inspection and update module, the program upgrade module and the configuration analysis module are respectively signal-connected to the central processing control module.

[0005] Furthermore, the battery detection device includes a client, a server, a database, a middle-level computer and a lower-level computer. The client, the server and the database are installed on the user's computer. The client is signal-connected to the server. The server is connected to several middle-level computers, and each middle-level computer is connected to several lower-level computers. Each lower-level computer has several channels, and when the battery is tested, it needs to be connected to the channels.

[0006] Furthermore, the central processing and control module establishes a connection with the server of the battery detection device to obtain the client version, server version, middle-level computer version information, and lower-level computer version information of the battery detection device. The middle-level computer version information includes device number, remarks, IP, GUID, and version. The lower-level computer version information includes lower-level computer number, GUID, and version. The version information is updated and displayed on the human-machine interaction interface; the real-time status of the CPU, disk, and memory of the middle-level computer is obtained from the server of the battery detection device and updated and displayed on the human-machine interaction interface; the central processing and control module establishes a connection with the program installation package management software to obtain the version information of the client and server program installation packages and download the program installation packages; the central processing and control module establishes a connection and interacts with the database of the battery detection device. When the user sets a timing time through the human-machine interaction interface, the central processing and control module starts to call the function module to execute the timing task command at the arrival of the timing time. The timing tasks include the configuration analysis module for configuration analysis, the check update module for check update, and the test data monitoring module for quick scan; the central processing and control module executes the commands triggered by the user in real time. The user clicks a button or menu through the human-machine interaction interface to trigger a real-time command. The central processing and control module calls the corresponding function module to execute the command and also executes the real-time monitoring command. The central processing and control module automatically calls the real-time exception monitoring module of the function module to execute the command.

[0007] As a further step, the test data monitoring module: scans the test data file according to the scan type, generates a test data scan problem report after scanning, and sends the test data scan problem report to the central processing and control module; the test data file is the test data recorded by the server during the battery test and stored on the computer disk in the form of a file. The test data includes data serial number, step time, step type, voltage, current, capacity, energy, and sampling time. The test data scan problem report includes the number of scan problems, scan time, number of scanned files, and several problem information; the problem information includes channel, test ID, start time, and problem. The problem includes error type and problem details. The error types include file does not exist, file opening exception, time exception, data loss, and data jump number; the scan types include quick scan, full disk scan, and custom scan; quick scan: checks the test data of the last test of all channels under the server of the battery detection device; full disk scan: checks the test data of all tests under the server; custom scan: filters the test data of all tests under the server according to the filtering conditions set by the user. The filtering conditions include time range and channel number, and checks the filtered test data; checking the test data: reads the test data file, determines whether there are any abnormalities. The abnormal situations include file does not exist, file is damaged and cannot be read, and file cannot read the test data. If there are any abnormalities, the analysis ends, a test data scan problem report is generated, and the test data scan problem report is sent to the central processing and control module; if there are no abnormalities, each piece of test data in the test data file is traversed to determine whether there are any abnormalities in the test data. If there are any abnormalities, the analysis ends, a test data scan problem report is generated, and the test data scan problem report is sent to the central processing and control module; judging test data abnormalities: whether the data serial numbers of two consecutive pieces of test data in the test data file are consecutive; judging two consecutive pieces of test data in the test data file, whether the sampling time of the latter piece of test data is greater than that of the former piece of data; judging whether one or more pieces of data are missing from all the test data.

[0008] As a further step, the real-time anomaly monitoring module: performs real-time anomaly monitoring on channels and servers, generates a real-time anomaly report when an anomaly is triggered, and sends the real-time anomaly report to the central processing and control module; Channel anomaly judgment: obtains all the channels under test from the central processing and control module, traverses each channel under test, and determines whether a test data file is generated 30 minutes after the channel starts the test. If not, a real-time anomaly report of no new data is generated. If so, the last data in the test data file is read, and it is determined whether the time difference between the sampling time of the last data and the current time is greater than 30 minutes. If so, a real-time anomaly report of no new data is generated. If not, the next channel under test is checked. After checking all the test channels, the above steps are repeated; Server anomaly: queries the database table of the battery detection device through the central processing and control module to obtain the server startup time and version of the battery detection device. Each time the server of the battery detection device starts, the startup time and server version are written into the database table of the battery detection device. It is monitored whether the same version of the server starts multiple times within 30 minutes. If it starts multiple times, a real-time anomaly report of abnormal server startup is generated and sent to the central processing and control module.

[0009] As a further step, the configuration analysis module: analyzes the configurations of the client and server of the battery detection device, and forms a configuration analysis report with the analysis results and feedbacks it to the central processing and control module.

[0010] As a further step, the steps for analyzing the configuration are as follows: S1: Reads the configuration files of the client and server, and determines whether there are any anomalies. The anomalies include file not found, file damaged and unreadable, and file unable to read configuration parameters. If there are anomalies, the analysis ends, and a configuration analysis report is formed and feedback to the central processing and control module; if there are no anomalies, the next step is executed; S2: Analyzes the specific server configuration parameters. The server configuration parameters include the data storage mode and the index table creation interval, and determines whether the server configuration parameters are reasonable. If they are not reasonable, corresponding modification suggestions are given to form a configuration analysis report and feedback to the central processing and control module. If they are reasonable, a configuration analysis report is formed and feedback to the central processing and control module; Analysis of the data storage mode: According to the startup mode configured by the client, it is determined whether the "data storage mode" configured by the server is reasonable; Analysis of the index table creation interval: Traverses and reads the database table of the battery detection device from the central processing and control module, and determines whether the setting of the "index table creation interval" configured by the server is reasonable according to the data volume of the database table.

[0011] As a further step, the inspection and update module: obtains the version information of the client and server of the battery detection device and the version information of the program installation packages of the client and server of the program installation package management software from the central processing and control module, compares the two version information, and confirms whether the versions of the client and server of the battery detection device need to be upgraded; if so, it sends the new version information to the central processing and control module, and the central processing and control module updates it to the human-machine interaction interface for display; if not, it sends the result that it is already the latest version and does not need to be updated to the central processing and control module, and the central processing and control module updates it to the human-machine interaction interface for display.

[0012] As a further step, the program upgrade module: downloads the program installation packages of the client and server to be updated from the program installation package management software through the central processing and control module to the current computer for decompression and installation, and starts the new version client and server programs after the installation is completed.

[0013] The beneficial effects of the present invention are as follows: (1) During the testing process, it can monitor and give early warnings in real time, which is convenient for users to perceive and handle anomalies in a timely manner, improving the user experience; (2) The test data monitoring can detect data missing or out-of-sequence problems in real time, give early warnings in a timely manner and take measures to avoid the impact of incomplete data on the test results, and improve the management and risk control capabilities of test data; (3) The configuration analysis report enables users to understand configuration problems and potential risks in a timely manner, thus ensuring the stable operation of the system; (4) Through the human-machine interaction interface, it can be intuitively and clearly seen the consistency of the software and hardware of all devices under this computer; Description of the Drawings

[0014] Figure 1 It is a schematic structural diagram of the safety monitoring system of the battery detection device of the present invention; Figure 2 It is a schematic structural diagram of the safety monitoring system of the present invention; Figure 3 It is a schematic structural diagram of the function module of the present invention. Detailed Embodiments

[0015] The following further describes the present invention in conjunction with the drawings and specific embodiments. The technical solutions in the embodiments of the present invention are clearly and completely described. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts belong to the protection scope of the present invention; in addition, without conflict, the embodiments in the present application and the features in the embodiments can be combined with each other.

[0016] As shown in the following embodiments Figures 1 - 3 A safety monitoring system for a battery testing device includes a battery testing device and a safety monitoring system. The safety monitoring system is connected to the program installation package management software of the battery testing device through Ethernet, wireless network or Internet. The safety monitoring system includes a human-machine interface, a central processing and control module, and function modules. The human-machine interface is signal-connected to the central processing and control module, and the central processing and control module is signal-connected to the function modules. The central processing and control module calls the function modules according to the user's commands to execute corresponding instructions. After the function modules complete the instructions, the processing results are fed back to the central processing and control module, and then the central processing and control module triggers corresponding warnings according to the processing results and displays them on the human-machine interface. The function modules include a test data monitoring module, a real-time anomaly monitoring module, an inspection and update module, a program upgrade module, and a configuration analysis module. The test data monitoring module, the real-time anomaly monitoring module, the inspection and update module, the program upgrade module, and the configuration analysis module are respectively signal-connected to the central processing and control module.

[0017] Preferably, the battery testing device includes a client, a server, a database, a middle-level computer, and a lower-level computer. The client, the server, and the database are installed on the user's computer. The client is signal-connected to the server. The server is connected to a number of middle-level computers, each middle-level computer is connected to a number of lower-level computers, and each lower-level computer has a number of channels that need to be connected when testing the battery.

[0018] Preferably, the central processing control module establishes a connection with the server of the battery detection device to obtain the client version information, server version information, middle computer version information, and lower computer version information of the battery detection device. The middle computer version information includes device number, remarks, IP, GUID, and version. The lower computer version information includes lower computer number, GUID, and version. The version information is updated and displayed on the human-machine interaction interface. The real-time status of the CPU, disk, and memory of the middle computer is obtained from the server of the battery detection device and updated and displayed on the human-machine interaction interface. The central processing control module establishes a connection with the program installation package management software to obtain the version information of the client and server program installation packages and download the program installation packages. The central processing control module establishes a connection and interacts with the database on the battery detection device. When the user sets a timing time through the human-machine interaction interface, the central processing control module starts to call the function module to execute the timing task command when the timing time is reached. The timing tasks include the configuration analysis module for configuration analysis, the check update module for check update, and the test data monitoring module for quick scan. The central processing control module executes the commands triggered by the user in real time. The user clicks a button or menu through the human-machine interaction interface to trigger a real-time command. The central processing control module calls the corresponding function module to execute the command and also executes the real-time monitoring command. The central processing control module automatically calls the real-time exception monitoring module of the function module to execute the command.

[0019] Preferably, the test data monitoring module scans the test data file according to the scan type, generates a test data scan problem report after scanning, and sends the test data scan problem report to the central processing and control module; the test data file is the test data recorded by the server during the battery test and stored on the computer disk in the form of a file. The test data includes data serial number, step time, step type, voltage, current, capacity, energy, and sampling time. The test data scan problem report includes the number of scan problems, scan time, number of scanned files, and several problem messages; the problem message includes channel, test ID, start time, and problem. The problem includes error type and problem details. The error types include file does not exist, file open exception, time exception, data loss, and data jump number; the scan types include quick scan, full disk scan, and custom scan; quick scan: checks the test data of the last test of all channels under the server of the battery detection device; full disk scan: checks the test data of all tests under the server; custom scan: filters the test data of all tests under the server according to the filtering conditions set by the user. The filtering conditions include time range and channel number, and checks the filtered test data; checking the test data: reads the test data file, determines whether there are abnormalities. The abnormal conditions include file does not exist, file is damaged and cannot be read, and the test data of the file cannot be read. If there are abnormalities, the analysis ends, a test data scan problem report is generated, and the test data scan problem report is sent to the central processing and control module; if there are no abnormalities, each piece of test data in the test data file is traversed to determine whether there are abnormalities in the test data. If there are abnormalities, the analysis ends, a test data scan problem report is generated, and the test data scan problem report is sent to the central processing and control module; judging test data abnormality: whether the data serial numbers of two consecutive pieces of test data in the test data file are continuous; judging two consecutive pieces of test data in the test data file, whether the sampling time of the latter piece of test data is greater than that of the former piece of test data; judging whether one or more pieces of data are missing from all the test data.

[0020] Preferably, the real-time anomaly monitoring module: monitors the channels and servers for real-time anomalies, generates a real-time anomaly report when an anomaly is triggered, and sends the real-time anomaly report to the central processing and control module; Channel anomaly judgment: obtains all the channels being tested from the central processing and control module, traverses each channel being tested, and determines whether a test data file is generated 30 minutes after the channel starts testing. If not, a real-time anomaly report of no new data is generated. If so, the last data in the test data file is read, and it is determined whether the time difference between the sampling time of the last data and the current time is greater than 30 minutes. If so, a real-time anomaly report of no new data is generated. If not, the next channel being tested is checked. After checking all the test channels, the above steps are repeated; Server anomaly: queries the database table of the battery detection device through the central processing and control module to obtain the server startup time and version of the battery detection device. Each time the server of the battery detection device starts, the startup time and server version are written into the database table of the battery detection device. It is monitored whether the same version of the server starts multiple times within 30 minutes. If it starts multiple times, a real-time anomaly report of abnormal server startup is generated and sent to the central processing and control module.

[0021] Preferably, the configuration analysis module: analyzes the configurations of the client and server of the battery detection device, and forms a configuration analysis report with the analysis results and feedbacks it to the central processing and control module.

[0022] Preferably, the steps for analyzing the configuration are as follows: S1: Reads the configuration files of the client and server, and determines whether there are anomalies. The anomaly situations include file non-existence, file corruption and unreadable, and inability to read configuration parameters from the file. If there are anomalies, the analysis ends and a configuration analysis report is formed and feedback to the central processing and control module. If there are no anomalies, the next step is executed; S2: Analyzes the specific server configuration parameters. The server configuration parameters include data storage mode and index table creation interval, and determines whether the server configuration parameters are reasonable. If they are not reasonable, corresponding modification suggestions are given to form a configuration analysis report and feedback to the central processing and control module. If they are reasonable, a configuration analysis report is formed and feedback to the central processing and control module; Analysis of the data storage mode: According to the startup mode configured by the client, it is determined whether the "data storage mode" configured by the server is reasonable; Analysis of the index table creation interval: Traverses and reads the database table of the battery detection device from the central processing and control module, and determines whether the setting of the "index table creation interval" configured by the server is reasonable according to the data volume of the database table.

[0023] Preferably, the inspection and update module: obtains the version information of the client and server of the battery detection device and the version information of the installation package programs of the client and server of the program installation package management software from the central processing and control module, compares the two version information, and confirms whether the versions of the client and server of the battery detection device need to be upgraded; if so, it sends the new version information to the central processing and control module, and the central processing and control module updates it to the human-machine interaction interface for display; if not, it sends the result that it is already the latest version and does not need to be updated to the central processing and control module, and the central processing and control module updates it to the human-machine interaction interface for display.

[0024] Preferably, the program upgrade module: downloads the program installation packages of the client and server to be updated from the program installation package management software through the central processing and control module to the current computer for decompression and installation, and starts the new version client and server programs after the installation is completed.

[0025] According to the disclosure and teachings of the above specification, those skilled in the art to which the present invention pertains can also make appropriate changes and modifications to the above embodiments. Therefore, the present invention is not limited to the specific embodiments disclosed and described above, and some modifications and changes to the present invention should also fall within the protection scope of the claims of the present invention. In addition, although some specific terms are used in this specification, these terms are only for convenience of description and do not constitute any limitation to the present invention.

Claims

1. A safety monitoring system for a battery detection device, characterized in that: It includes a battery detection device and a safety monitoring system. The safety monitoring system is connected to the program installation package management software of the battery detection device through Ethernet, wireless network or Internet. The safety monitoring system includes a human-computer interaction interface, a central processing and control module, and function modules. The human-computer interaction interface is signal-connected to the central processing and control module, and the central processing and control module is signal-connected to the function modules. The central processing and control module calls the function modules according to the user's command to execute corresponding instructions. After the function modules complete the instructions, they feedback the processing results to the central processing and control module, and then the central processing and control module triggers corresponding warnings according to the processing results and displays them on the human-computer interaction interface. The function modules include a test data monitoring module, a real-time anomaly monitoring module, an inspection and update module, a program upgrade module, and a configuration analysis module. The test data monitoring module, the real-time anomaly monitoring module, the inspection and update module, the program upgrade module, and the configuration analysis module are respectively signal-connected to the central processing and control module.

2. The safety monitoring system of the battery detection device according to claim 1, characterized in that: The battery detection device includes a client, a server, a database, a middle-level computer, and a lower-level computer. The client, the server, and the database are installed on the user's computer. The client is signal-connected to the server. The server is connected to a number of middle-level computers, and each middle-level computer is connected to a number of lower-level computers. Each lower-level computer has a number of channels, and when testing the battery, it needs to be connected to the channels.

3. The safety monitoring system of the battery testing device according to claim 2, characterized in that: The central processing and control module establishes a connection with the server of the battery detection device, obtains the client version information, server version information, middle-level computer version information, and lower-level computer version information of the battery detection device. The middle-level computer version information includes device number, remarks, IP, GUID, and version. The lower-level computer version information includes lower-level computer number, GUID, and version, and updates the version information to be displayed on the human-computer interaction interface. It obtains the real-time status of the CPU, disk, and memory of the middle-level computer from the server of the battery detection device and updates the real-time status to be displayed on the human-computer interaction interface. The central processing and control module establishes a connection with the program installation package management software, obtains the version information of the program installation packages of the client and the server, and downloads the program installation packages. The central processing and control module establishes a connection and interaction with the database of the battery detection device. When the user sets a timing time through the human-computer interaction interface, the central processing and control module starts to call the function modules to execute the timing task commands when the timing time is reached. The timing tasks include the configuration analysis module for configuration analysis, the inspection and update module for inspection and update, and the test data monitoring module for quick scanning. The central processing and control module executes the commands triggered by the user in real time. The user clicks a button or a menu through the human-computer interaction interface to trigger a real-time command. The central processing and control module calls the corresponding function modules to execute the commands and also executes real-time monitoring commands. The central processing and control module automatically calls the real-time anomaly monitoring module of the function modules to execute the commands.

4. The safety monitoring system of the battery testing equipment according to claim 1, characterized in that: The described test data monitoring module: scans the test data file according to the scan type, generates a test data scan problem report after scanning, and sends the test data scan problem report to the central processing and control module; the test data file is the test data recorded by the server during the battery test and stored on the computer disk in the form of a file. The test data includes data serial number, step time, step type, voltage, current, capacity, energy, and sampling time. The test data scan problem report includes the number of scan problems, scan time, number of scanned files, and several problem messages; The problem messages include channel, test ID, start time, and problems. The problems include error type and problem details. The error types include file does not exist, file open exception, time exception, data loss, and data jump number; the scan types include quick scan, full disk scan, and custom scan; quick scan: checks the test data of the last test of all channels under the server of the battery detection device; full disk scan: checks the test data of all tests under the server; custom scan: filters the test data of all tests under the server according to the filtering conditions set by the user. The filtering conditions include time range and channel number, and checks the filtered test data; checking the test data: reads the test data file, determines whether there are any abnormalities. The abnormal conditions include file does not exist, file damaged and cannot be read, and file cannot read test data. If there are abnormalities, the analysis ends, a test data scan problem report is generated, and the test data scan problem report is sent to the central processing and control module; If there are no abnormalities, then traverse each piece of test data in the test data file, determine whether the test data has any abnormalities. If there are abnormalities, the analysis ends, a test data scan problem report is generated, and the test data scan problem report is sent to the central processing and control module; Judging test data abnormalities: whether the data serial numbers of two consecutive pieces of test data in the test data file are consecutive; judging two consecutive pieces of test data in the test data file, whether the sampling time of the latter piece of test data is greater than that of the former piece of test data; judging whether one or more pieces of data are missing from all test data.

5. The safety monitoring system of the battery testing device according to claim 1, characterized in that: The described real-time anomaly monitoring module: performs real-time anomaly monitoring on channels and servers, generates a real-time anomaly report when an anomaly is triggered, and sends the real-time anomaly report to the central processing and control module; channel anomaly judgment: obtains all the channels under test from the central processing and control module, traverses each channel under test, determines whether a test data file is generated 30 minutes after the start of the test for this channel. If not, a real-time anomaly report of no new data is generated. If so, reads the last piece of data in the test data file, determines whether the time difference between the sampling time of the last piece of data and the current time is greater than 30 minutes. If so, a real-time anomaly report of no new data is generated. If not, checks the next channel under test. After checking all the test channels, repeat the above steps; Server exception: Query the database table of the battery detection device through the central processing control module to obtain the server startup time and version of the battery detection device. Each time the server of the battery detection device starts, it writes the startup time and server version into the database table of the battery detection device. Monitor whether the same version of the server starts multiple times within 30 minutes. If it starts multiple times, generate a real-time exception report for the abnormal startup of the server and send the real-time exception report to the central processing control module.

6. The safety monitoring system of the battery testing device according to claim 1, characterized in that: The configuration analysis module: Analyze the configurations of the client and server of the battery detection device, and form a configuration analysis report with the analysis results and feedback it to the central processing control module.

7. The safety monitoring system of the battery testing device according to claim 6, characterized in that: The steps for analyzing the configuration are as follows: S1: Read the configuration files of the client and server, and determine whether there are any exceptions. The abnormal situations include that the file does not exist, the file is damaged and cannot be read, and the configuration parameters of the file cannot be read. If there are exceptions, end the analysis, form a configuration analysis report, and feedback it to the central processing control module; if there are no exceptions, proceed to the next step; S2: Analyze the specific server configuration parameters. The server configuration parameters include the data storage mode and the index table creation interval. Determine whether the server configuration parameters are reasonable. If they are not reasonable, give corresponding modification suggestions, form a configuration analysis report, and feedback it to the central processing control module; if they are reasonable, form a configuration analysis report and feedback it to the central processing control module. Analysis of the data storage mode: According to the startup mode configured by the client, determine whether the server configuration "data storage mode" is reasonable; Analysis of the index table creation interval: Traverse and read the database table of the battery detection device from the central processing control module, and determine whether the setting of the server configuration "index table creation interval" is reasonable according to the data volume of the database table.

8. The safety monitoring system of the battery testing device according to claim 1, characterized in that: The check update module: Obtain the version information of the client and server of the battery detection device and the version information of the program installation packages of the client and server of the program installation package management software from the central processing control module, compare the two version information, and confirm whether the versions of the client and server of the battery detection device need to be upgraded; if so, send the new version information to the central processing control module, and the central processing control module updates it to the human-computer interaction interface for display; if not, send the result that it is already the latest version and does not need to be updated to the central processing control module, and the central processing control module updates it to the human-computer interaction interface for display.

9. The safety monitoring system of the battery detection device according to claim 1, characterized in that: The program upgrade module: Download the program installation packages of the client and server to be updated from the program installation package management software to the current computer through the central processing control module for decompression and installation. After the installation is completed, start the new version of the client and server programs.

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