Nuclear power overhaul industry safety management and control method

Abstract

The invention specifically relates to a nuclear power overhaul industry safety management and control method comprising the following steps: step 101, during an overhaul preparation period, inputting overhaul completion preparation work order data; and step 102, during an overhaul implementation period, generating overhaul industrial safety management and control data according to overhaul completion preparation work order data, and displaying the overhaul industrial safety management and control data. The invention further relates to a nuclear power overhaul industry safety management and control device, computer equipment and a computer readable storage medium. According to the invention, the overhaul industry safety management and control data is automatically generated and displayed, visualization, transparency, digitization, precision and intelligentization of nuclear power overhaul industry safety management and control work are realized, and promotion and optimization of the overhaul industry safety management and control work are facilitated.

Description

Technical Field

[0001] The present invention relates to the technical field of nuclear power overhaul industrial safety management and control, and in particular to a nuclear power overhaul industrial safety management and control method, device, computer equipment and computer-readable storage medium. Background Art

[0002] During the entire process of nuclear power plant overhaul, different risk levels and classifications are set for different types of industrial safety risks according to the type of risk and operating conditions. On the one hand, it is to strengthen the control of overhaul and assess the industrial safety execution goals of overhaul. On the other hand, it is also convenient to establish a standard for process safety management and control during overhaul implementation and formulate different risk plans according to different types of high risks.

[0003] The existing overhaul industrial safety management and control data is manually verified by industrial safety personnel. The entire work management is not transparent, the progress is not clear, and personnel outside industrial safety cannot obtain overhaul industrial safety management and control data in a timely manner. In addition, there are uncertain deviations and problems in manual data verification, which is not conducive to the promotion and optimization of overhaul industrial safety management and control work. Summary of the invention

[0004] The purpose of the present invention is to provide a nuclear power overhaul industrial safety management and control method, device, computer equipment and computer-readable storage medium to solve the problems of opacity, unclear progress, and unclear deviations and problems in data verification in the existing nuclear power overhaul industrial safety management and control work, which are not conducive to the promotion and optimization of nuclear power overhaul industrial safety management and control work. The overhaul industrial safety management and control data is automatically generated and displayed, and the nuclear power overhaul industrial safety management and control work is visualized, transparent, digitized, precise and intelligent, which facilitates the promotion and optimization of overhaul industrial safety management and control work.

[0005] In order to solve the above problems, the present invention provides a nuclear power overhaul industrial safety management and control method, comprising the following steps:

[0006] Step 101, during the overhaul preparation period, input the overhaul completion preparation work order data;

[0007] Step 102: During the overhaul implementation, the overhaul industrial safety management and control data is generated and displayed based on the overhaul completion preparation work order data.

[0008] As one of the achievable ways, the overhaul completion preparation work order data includes the work order data of each overhaul completion preparation, and the work order data includes the following field information of the work order: planned start time, planned completion time, operation area, responsible unit, license type, work order status, hidden danger, deviation, praise, good practice and mercurochrome;

[0009] The "License Type" field information of the work order includes RWP1, RWP2 and RWP3;

[0010] The "Work Order Status" field of the work order includes: Not Started, Started, and Completed;

[0011] The "Hidden Dangers" field information of the work order includes the following field information: self-inspected hidden dangers and externally inspected hidden dangers; the "Externally inspected hidden dangers" field information includes: the number of externally inspected hidden dangers and the time of externally inspected hidden dangers; the "Self-inspected hidden dangers" field information includes: the number of self-inspected hidden dangers and the time of self-inspected hidden dangers.

[0012] As one of the ways this can be achieved, overhauling industrial safety control data includes high-risk license overview data;

[0013] The high-risk license overview data includes the percentage of licenses that have not started, the percentage of licenses that have started, the percentage of licenses that have been completed, all work order data of licenses that have not started, all work order data of licenses that have started, and all work order data of licenses that have been completed;

[0014] According to the overhaul completion preparation work order data, generate and display the high-risk license overview data, including the following steps:

[0015] In the overhaul completion preparation work order data, all work order data with the "License Type" field information of "RWP1" or "RWP2" are counted as all work order data of high-risk licenses;

[0016] In the overhaul completion preparation work order data, all work order data with "License Type" field information of "RWP1" or "RWP2" and "Work Order Status" field information of "Not Started" are counted as all work order data of started high-risk licenses; the percentage of the number of work order data of started high-risk licenses to the number of work order data of high-risk licenses is counted as the percentage of the number of unstarted high-risk licenses;

[0017] In the overhaul completion preparation work order data, all work order data with "License Type" field information of "RWP1" or "RWP2" and "Work Order Status" field information of "Started" are counted as all work order data of high-risk licenses that have been started; the percentage of work order data of high-risk licenses that have been started to the number of work order data of high-risk licenses is counted as the percentage of the number of high-risk licenses that have been started;

[0018] In the overhaul completion preparation work order data, all work order data with "License Type" field information of "RWP1" or "RWP2" and "Work Order Status" field information of "Completed" are counted as all work order data of completed high-risk licenses; the percentage of the number of work order data of completed high-risk licenses to the number of work order data of high-risk licenses is counted as the percentage of the number of completed high-risk licenses;

[0019] The percentage of high-risk licenses that have not been started, the percentage of high-risk licenses that have been started, and the percentage of high-risk licenses that have been completed are displayed in the form of a pie chart. Click the corresponding color block in the pie chart to further display all work order data for the corresponding high-risk license.

[0020] As one of the possible ways to do this, overhauling industrial safety control data also includes today’s high-risk license control data;

[0021] Today's high-risk license control data includes all work order data of high-risk licenses in each operating area, the number of high-risk licenses in each operating area, the planned execution deviation of each work order of high-risk licenses in each operating area, all work order data of high-risk licenses in each responsible unit, the number of high-risk licenses in each responsible unit, the planned execution deviation of each work order of high-risk licenses in each responsible unit, all work order data of RWP1-level high-risk licenses, the number of RWP1-level high-risk licenses, the planned execution deviation of each work order of RWP1-level high-risk licenses, all work order data of RWP2-level high-risk licenses, the number of RWP2-level high-risk licenses and the planned execution deviation of each work order of RWP2-level high-risk licenses;

[0022] According to the overhaul completion preparation work order data, today's high-risk license control data is generated and displayed, including the following steps:

[0023] In the overhaul completion preparation work order data, all work order data with the same "operating area" field information and "license type" field information as "RWP1" or "RWP2" are counted as all work order data of a high-risk license for an operating area; the number of work order data of a high-risk license for an operating area is counted as the number of high-risk licenses for an operating area;

[0024] In the overhaul completion preparation work order data, all work order data with the same "responsible unit" field information and "license type" field information as "RWP1 level" or "RWP2 level" are counted as all work order data of a responsible unit high-risk license; the number of work order data of a responsible unit high-risk license is counted as the number of a responsible unit high-risk license;

[0025] In the overhaul completion preparation work order data, all work order data with the "License Type" field information of "RWP1" are counted as all work order data of RWP1 high-risk licenses; the number of work order data of RWP1 high-risk licenses is counted as the number of RWP1 high-risk licenses;

[0026] In the overhaul completion preparation work order data, all work order data with the "License Type" field information of "RWP2" are counted as all work order data of RWP2 high-risk licenses; the number of work order data of RWP2 high-risk licenses is counted as the number of RWP2 high-risk licenses;

[0027] The planned execution deviation of the work order is obtained by comparing the "Planned Start Time" field information and "Planned Completion Time" field information of the work order with the current time in percentage;

[0028] The number of high-risk licenses for each operating area, the number of high-risk licenses for each responsible unit, the number of RWP1 high-risk licenses, and the number of RWP2 high-risk licenses are displayed in the form of bar charts. Click on the bar chart to further display all work order data corresponding to the high-risk license and the planned execution deviation of each work order.

[0029] As one of the feasible ways, the overhaul industrial safety management and control data also includes; daily hidden danger trend data;

[0030] Daily hidden danger trend data includes the number of hidden dangers detected by self-inspection and the number of hidden dangers detected by external inspection;

[0031] Generate and display daily hidden danger trend data based on the number of overhaul preparation work orders, including the following steps:

[0032] In the overhaul completion preparation work order data, the self-inspection hidden danger time in the "Self-inspection hidden danger" field information is counted as the sum of the self-inspection hidden danger quantity of all work orders per day to obtain the daily self-inspection hidden danger quantity;

[0033] In the overhaul completion preparation work order data, the external inspection time in the "External inspection hidden danger" field information is counted as the sum of the number of external inspection hidden dangers of all work orders per day to obtain the number of external inspection hidden dangers per day;

[0034] The number of hidden dangers found through self-inspection every day and the number of hidden dangers found through external inspection every day are displayed in the form of line graphs respectively.

[0035] As one of the possible ways, the overhaul industry safety management and control data also includes: safety incident statistics;

[0036] The statistical data of security incidents include hidden danger work order data, the number of hidden danger work orders, the hidden danger work order data of each department, the number of hidden danger work orders of each department, deviation work order data, the number of deviation work orders of each department, the number of deviation work orders of each department, praise work order data, the number of praise work orders, the praise work order data of each department, the number of praise work orders of each department, good practice work order data, the number of good practice work orders, the good practice work order data of each department, the number of good practice work orders of each department, mercurochrome work order data, the number of mercurochrome work orders, the mercurochrome work order data of each department and the number of mercurochrome work orders of each department;

[0037] Generate and display security incident statistics based on the number of work orders prepared for overhaul completion, including the following steps:

[0038] In the overhaul completion preparation work order data, all the work order data whose "Hazard" field information is not empty are counted as the hidden danger work order data, and the number of work order data whose "Hazard" field information is not empty is counted as the number of hidden danger work orders;

[0039] In the overhaul completion preparation work order data, all work order data with the same "department" field information and non-empty "hazard" field information are counted as department and room hazard work order data, and the number of work order data with the same "department" field information and non-empty "hazard" field information is counted as the number of department and room hazard work orders;

[0040] In the overhaul completion preparation work order data, all the work order data whose "Deviation" field information is not empty are counted as deviation work order data, and the number of work order data whose "Deviation" field information is not empty is counted as the number of deviation work orders;

[0041] In the overhaul completion preparation work order data, all the work order data with the same "Department" field information and non-empty "Deviation" field information are counted as the department deviation work order data, and the number of work order data with the same "Department" field information and non-empty "Deviation" field information is counted as the number of department deviation work orders;

[0042] In the overhaul completion preparation work order data, all the work order data whose "Praise" field information is not empty are counted as praise work order data, and the number of work order data whose "Praise" field information is not empty is counted as the number of praise work orders;

[0043] In the overhaul completion preparation work order data, all the work order data with the same "department" field information and non-empty "praise" field information are counted as the department praise work order data, and the number of work order data with the same "department" field information and non-empty "praise" field information is counted as the number of department praise work orders;

[0044] In the overhaul completion preparation work order data, all the work order data whose "good practice" field information is not empty are counted as good practice work order data, and the number of work order data whose "good practice" field information is not empty is counted as the number of good practice work orders;

[0045] In the overhaul completion preparation work order data, all the work order data with the same "Department" field information and non-empty "Good Practice" field information are counted as the department good practice work order data, and the number of work order data with the same "Department" field information and non-empty "Good Practice" field information is counted as the number of department good practice work orders;

[0046] In the overhaul completion preparation work order data, all the work order data whose "Mercury Red Syrup" field information is not empty are counted as the Mercury Red Syrup work order data, and the number of work order data whose "Mercury Red Syrup" field information is not empty is counted as the number of Mercury Red Syrup work orders;

[0047] In the overhaul completion preparation work order data, all work order data with the same "Department" field information and non-empty "Mercury Red" field information are counted as the department and room merccury red work order data, and the number of work order data with the same "Department" field information and non-empty "Mercury Red" field information is counted as the number of department and room merccury red work orders;

[0048] The number of hidden danger work orders, the number of hidden danger work orders in each department, the number of deviation work orders, the number of deviation work orders in each department, the number of commendation work orders, the number of commendation work orders in each department, the number of good practice work orders, the number of good practice work orders in each department, the number of mercurochrome work orders and the number of mercurochrome work orders in each department are displayed in the form of bar charts. Click on the bar chart to further display the corresponding work order data.

[0049] As one of the feasible ways, the overhaul industrial safety control data also includes; today's high-risk operation data;

[0050] Today's high-risk operation data includes today's high-risk operation list;

[0051] According to the number of overhaul preparation work orders, today's high-risk operation data is generated and displayed, including the following steps:

[0052] In the overhaul completion preparation work order data, all work order data with the "Planned Start Time" field information being today and before today, the "Planned Completion Time" field information being after today, and the "License Type" field information being "RWP1" or "RWP2" are counted to form a list of today's high-risk operations and display them;

[0053] Click on the work order data in today's high-risk job list and jump to the corresponding data system by linking the EAM system.

[0054] In order to solve the above problems, the present invention also provides a nuclear power overhaul industrial safety control device, comprising:

[0055] The data acquisition module is used to input the overhaul completion preparation work order data during the overhaul preparation period;

[0056] The data processing module is used to generate overhaul industrial safety control data based on the overhaul completion preparation work order data during the overhaul implementation period;

[0057] The data display module is used to display overhaul industrial safety management and control data.

[0058] In order to solve the above technical problems, the present invention provides a computer device, including a memory and a processor, wherein the memory stores computer-readable instructions, and the processor implements the steps of the above-mentioned nuclear power overhaul industrial safety management and control method when executing the computer-readable instructions.

[0059] In order to solve the above technical problems, the present invention provides a computer-readable storage medium, on which computer-readable instructions are stored, and when the computer-readable instructions are executed, the steps of the above-mentioned nuclear power overhaul industrial safety management and control method are implemented.

[0060] Beneficial technical effects of the present invention:

[0061] The nuclear power overhaul industrial safety management and control method, device, computer equipment and computer-readable storage medium of the present invention automatically generate and display overhaul industrial safety management and control data, realize the visualization, transparency, digitization, precision and intelligence of nuclear power overhaul industrial safety management and control work, and facilitate the promotion and optimization of overhaul industrial safety management and control work. BRIEF DESCRIPTION OF THE DRAWINGS

[0062] Figure 1 A flowchart of an embodiment of the nuclear power overhaul industrial safety management and control method of the present invention;

[0063] Figure 2 It is a schematic structural view of an embodiment of the nuclear power overhaul industrial safety control device of the present invention.

[0064] Figure 3 The figure is a schematic structural view of an embodiment of a computer device of the present invention. DETAILED DESCRIPTION

[0065] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by technicians in the technical field to which this application belongs; the terms used in the specification of the application are only for the purpose of describing specific embodiments and are not intended to limit this application; the terms "including" and "having" and any variations thereof in the specification and claims of this application and the above-mentioned figure descriptions are intended to cover non-exclusive inclusions.

[0066] Reference to "embodiments" herein means that a particular feature, structure, or characteristic described in conjunction with the embodiments may be included in at least one embodiment of the present application. The appearance of the phrase in various locations in the specification does not necessarily refer to the same embodiment, nor is it an independent or alternative embodiment that is mutually exclusive with other embodiments. It is explicitly and implicitly understood by those skilled in the art that the embodiments described herein may be combined with other embodiments.

[0067] The technical solution of the present invention is clearly and completely described below in conjunction with the accompanying drawings and specific embodiments.

[0068] refer to Figure 1 , shows a flow chart of an embodiment of a nuclear power overhaul industrial safety management and control method, the nuclear power overhaul industrial safety management and control method comprising the following steps:

[0069] Step 101, during the overhaul preparation period, input the overhaul completion preparation work order data;

[0070] Step 102: During the overhaul implementation, the overhaul industrial safety management and control data is generated and displayed based on the overhaul completion preparation work order data.

[0071] In this embodiment, as one of the achievable ways, the overhaul completion preparation work order data includes the work order data of each overhaul completion preparation, and the work order data includes the following field information of the work order: planned start time, planned completion time, operation area, responsible unit, license type, work order status, hidden danger, deviation, praise, good practice and mercurochrome;

[0072] The "License Type" field information of the work order includes RWP1, RWP2 and RWP3;

[0073] The "Work Order Status" field of the work order includes: Not Started, Started, and Completed;

[0074] The "Hidden Dangers" field information of the work order includes the following field information: self-inspected hidden dangers and externally inspected hidden dangers; the "Externally inspected hidden dangers" field information includes: the number of externally inspected hidden dangers and the time of externally inspected hidden dangers; the "Self-inspected hidden dangers" field information includes: the number of self-inspected hidden dangers and the time of self-inspected hidden dangers.

[0075] In this embodiment, as one of the achievable ways, the overhaul industrial safety management and control data includes high-risk license overview data;

[0076] The high-risk license overview data includes the percentage of licenses that have not started, the percentage of licenses that have started, the percentage of licenses that have been completed, all work order data of licenses that have not started, all work order data of licenses that have started, and all work order data of licenses that have been completed;

[0077] According to the overhaul completion preparation work order data, generate and display the high-risk license overview data, including the following steps:

[0078] In the overhaul completion preparation work order data, all work order data with the "License Type" field information of "RWP1" or "RWP2" are counted as all work order data of high-risk licenses;

[0079] In the overhaul completion preparation work order data, all work order data with "License Type" field information of "RWP1" or "RWP2" and "Work Order Status" field information of "Not Started" are counted as all work order data of started high-risk licenses; the percentage of the number of work order data of started high-risk licenses to the number of work order data of high-risk licenses is counted as the percentage of the number of unstarted high-risk licenses;

[0080] In the overhaul completion preparation work order data, all work order data with "License Type" field information of "RWP1" or "RWP2" and "Work Order Status" field information of "Started" are counted as all work order data of high-risk licenses that have been started; the percentage of work order data of high-risk licenses that have been started to the number of work order data of high-risk licenses is counted as the percentage of the number of high-risk licenses that have been started;

[0081] In the overhaul completion preparation work order data, all work order data with "License Type" field information of "RWP1" or "RWP2" and "Work Order Status" field information of "Completed" are counted as all work order data of completed high-risk licenses; the percentage of the number of work order data of completed high-risk licenses to the number of work order data of high-risk licenses is counted as the percentage of the number of completed high-risk licenses;

[0082] The percentage of high-risk licenses that have not been started, the percentage of high-risk licenses that have been started, and the percentage of high-risk licenses that have been completed are displayed in the form of a pie chart. Clicking the corresponding color block on the pie chart will further display all the work order data of the corresponding high-risk license, significantly improving the efficiency of high-risk license management and control.

[0083] In this embodiment, as one of the achievable methods, the overhaul industrial safety control data also includes today's high-risk license control data;

[0084] Today's high-risk license control data includes all work order data of high-risk licenses in each operating area, the number of high-risk licenses in each operating area, the planned execution deviation of each work order of high-risk licenses in each operating area, all work order data of high-risk licenses in each responsible unit, the number of high-risk licenses in each responsible unit, the planned execution deviation of each work order of high-risk licenses in each responsible unit, all work order data of RWP1-level high-risk licenses, the number of RWP1-level high-risk licenses, the planned execution deviation of each work order of RWP1-level high-risk licenses, all work order data of RWP2-level high-risk licenses, the number of RWP2-level high-risk licenses and the planned execution deviation of each work order of RWP2-level high-risk licenses;

[0085] According to the overhaul completion preparation work order data, today's high-risk license control data is generated and displayed, including the following steps:

[0086] In the overhaul completion preparation work order data, all work order data with the same "operating area" field information and "license type" field information as "RWP1" or "RWP2" are counted as all work order data of a high-risk license for an operating area; the number of work order data of a high-risk license for an operating area is counted as the number of high-risk licenses for an operating area;

[0087] In the overhaul completion preparation work order data, all work order data with the same "responsible unit" field information and "license type" field information as "RWP1 level" or "RWP2 level" are counted as all work order data of a responsible unit high-risk license; the number of work order data of a responsible unit high-risk license is counted as the number of a responsible unit high-risk license;

[0088] In the overhaul completion preparation work order data, all work order data with the "License Type" field information of "RWP1" are counted as all work order data of RWP1 high-risk licenses; the number of work order data of RWP1 high-risk licenses is counted as the number of RWP1 high-risk licenses;

[0089] In the overhaul completion preparation work order data, all work order data with the "License Type" field information of "RWP2" are counted as all work order data of RWP2 high-risk licenses; the number of work order data of RWP2 high-risk licenses is counted as the number of RWP2 high-risk licenses;

[0090] The planned execution deviation of the work order is obtained by comparing the "Planned Start Time" field information and "Planned Completion Time" field information of the work order with the current time in percentage;

[0091] The number of high-risk licenses for each operating area, the number of high-risk licenses for each responsible unit, the number of RWP1 high-risk licenses, and the number of RWP2 high-risk licenses are displayed in the form of bar charts. Clicking on the bar chart will further display all work order data of the corresponding high-risk license and the planned execution deviation of each work order, providing data support for today's high-risk license management and control decisions.

[0092] In this embodiment, as one of the achievable methods, the overhaul industrial safety management and control data also includes: daily hidden danger trend data;

[0093] Daily hidden danger trend data includes the number of hidden dangers detected by self-inspection and the number of hidden dangers detected by external inspection;

[0094] Generate and display daily hidden danger trend data based on the number of overhaul preparation work orders, including the following steps:

[0095] In the overhaul completion preparation work order data, the self-inspection hidden danger time in the "Self-inspection hidden danger" field information is counted as the sum of the self-inspection hidden danger quantity of all work orders per day to obtain the daily self-inspection hidden danger quantity;

[0096] In the overhaul completion preparation work order data, the external inspection time in the "External inspection hidden danger" field information is counted as the sum of the number of external inspection hidden dangers of all work orders per day to obtain the number of external inspection hidden dangers per day;

[0097] The number of hidden dangers found through self-inspection every day and the number of hidden dangers found through external inspection every day are displayed in the form of line graphs respectively.

[0098] Displaying daily hidden danger trend data makes it easier for professionals to understand their own hidden dangers and makes the hidden danger management process transparent.

[0099] In this embodiment, as one of the achievable methods, the overhaul industrial safety management and control data also includes: safety incident statistics;

[0100] The statistical data of security incidents include hidden danger work order data, the number of hidden danger work orders, the hidden danger work order data of each department, the number of hidden danger work orders of each department, deviation work order data, the number of deviation work orders of each department, the number of deviation work orders of each department, praise work order data, the number of praise work orders, the praise work order data of each department, the number of praise work orders of each department, good practice work order data, the number of good practice work orders, the good practice work order data of each department, the number of good practice work orders of each department, mercurochrome work order data, the number of mercurochrome work orders, the mercurochrome work order data of each department and the number of mercurochrome work orders of each department;

[0101] Generate and display security incident statistics based on the number of work orders prepared for overhaul completion, including the following steps:

[0102] In the overhaul completion preparation work order data, all the work order data whose "Hazard" field information is not empty are counted as the hidden danger work order data, and the number of work order data whose "Hazard" field information is not empty is counted as the number of hidden danger work orders;

[0103] In the overhaul completion preparation work order data, all work order data with the same "department" field information and non-empty "hazard" field information are counted as department and room hazard work order data, and the number of work order data with the same "department" field information and non-empty "hazard" field information is counted as the number of department and room hazard work orders;

[0104] In the overhaul completion preparation work order data, all the work order data whose "Deviation" field information is not empty are counted as deviation work order data, and the number of work order data whose "Deviation" field information is not empty is counted as the number of deviation work orders;

[0105] In the overhaul completion preparation work order data, all the work order data with the same "Department" field information and non-empty "Deviation" field information are counted as the department deviation work order data, and the number of work order data with the same "Department" field information and non-empty "Deviation" field information is counted as the number of department deviation work orders;

[0106] In the overhaul completion preparation work order data, all the work order data whose "Praise" field information is not empty are counted as praise work order data, and the number of work order data whose "Praise" field information is not empty is counted as the number of praise work orders;

[0107] In the overhaul completion preparation work order data, all the work order data with the same "department" field information and non-empty "praise" field information are counted as the department praise work order data, and the number of work order data with the same "department" field information and non-empty "praise" field information is counted as the number of department praise work orders;

[0108] In the overhaul completion preparation work order data, all the work order data whose "good practice" field information is not empty are counted as good practice work order data, and the number of work order data whose "good practice" field information is not empty is counted as the number of good practice work orders;

[0109] In the overhaul completion preparation work order data, all the work order data with the same "Department" field information and non-empty "Good Practice" field information are counted as the department good practice work order data, and the number of work order data with the same "Department" field information and non-empty "Good Practice" field information is counted as the number of department good practice work orders;

[0110] In the overhaul completion preparation work order data, all the work order data whose "Mercury Red Syrup" field information is not empty are counted as the Mercury Red Syrup work order data, and the number of work order data whose "Mercury Red Syrup" field information is not empty is counted as the number of Mercury Red Syrup work orders;

[0111] In the overhaul completion preparation work order data, all work order data with the same "Department" field information and non-empty "Mercury Red" field information are counted as the department and room merccury red work order data, and the number of work order data with the same "Department" field information and non-empty "Mercury Red" field information is counted as the number of department and room merccury red work orders;

[0112] The number of hidden danger work orders, the number of hidden danger work orders in each department, the number of deviation work orders, the number of deviation work orders in each department, the number of commendation work orders, the number of commendation work orders in each department, the number of good practice work orders, the number of good practice work orders in each department, the number of mercurochrome work orders and the number of mercurochrome work orders in each department are displayed in the form of bar charts. Click on the bar chart to further display the corresponding work order data.

[0113] In this embodiment, as one of the achievable methods, the overhaul industrial safety management and control data also includes: today's high-risk operation data;

[0114] Today's high-risk operation data includes today's high-risk operation list;

[0115] According to the number of overhaul preparation work orders, today's high-risk operation data is generated and displayed, including the following steps:

[0116] In the overhaul completion preparation work order data, all work order data with the "Planned Start Time" field information being today and before today, the "Planned Completion Time" field information being after today, and the "License Type" field information being "RWP1" or "RWP2" are counted to form a list of today's high-risk operations and display them;

[0117] Click on the work order data in today's high-risk job list and jump to the corresponding data system by linking the EAM system.

[0118] refer to Figure 2 As an implementation of the above method, the present invention provides an embodiment of a nuclear power overhaul industrial safety management and control device. The device embodiment corresponds to the embodiment of the above nuclear power overhaul industrial safety management and control method. The device can be specifically applied to various electronic devices.

[0119] The nuclear power overhaul industrial safety control device described in this embodiment includes:

[0120] The data acquisition module 201 is used to input the overhaul completion preparation work order data during the overhaul preparation period;

[0121] The data processing module 202 is used to generate overhaul industrial safety management and control data according to the overhaul completion preparation work order data during the overhaul implementation period;

[0122] The data display module 203 is used to display the overhaul industrial safety management and control data.

[0123] As an implementation of the above method, the present invention provides an embodiment of a computer device, and the embodiment of the computer device corresponds to the embodiment of the above nuclear power overhaul industrial safety management and control method.

[0124] The computer device described in this embodiment includes a memory 301, a processor 302 and a network interface 303 that are interconnected and communicated through a system bus. It should be noted that the figure only shows a computer device with components 301-303, but it should be understood that it is not required to implement all the components shown, and more or fewer components can be implemented instead. Among them, those skilled in the art can understand that the computer device here is a device that can automatically perform numerical calculations and / or information processing according to pre-set or stored instructions, and its hardware includes but is not limited to microprocessors, application-specific integrated circuits, programmable gate arrays, digital processors, embedded devices, etc.

[0125] The computer device may be a computing device such as a desktop computer, a notebook, a PDA, a cloud server, etc. The computer device may interact with a user through a keyboard, a mouse, a remote controller, a touch pad, or a voice control device.

[0126] The memory 301 includes at least one type of readable storage medium, and the readable storage medium includes flash memory, hard disk, multimedia card, card-type memory, random access memory, static random access memory, read-only memory, electrically erasable programmable read-only memory, programmable read-only memory, magnetic memory, disk, optical disk, etc. In some embodiments, the memory 301 can be an internal storage unit of the computer device, such as a hard disk or memory of the computer device. In other embodiments, the memory 301 can also be an external storage device of the computer device, such as a plug-in hard disk, smart memory card, secure digital card, flash memory card, etc. equipped on the computer device. Of course, the memory 301 can also include both the internal storage unit of the computer device and its external storage device. In this embodiment, the memory 301 is generally used to store the operating system and various application software installed on the computer device, such as the computer-readable instructions of the above-mentioned nuclear power overhaul industrial safety management and control method. In addition, the memory 301 can also be used to temporarily store various types of data that have been output or are to be output.

[0127] The processor 302 may be a central processing unit, a controller, a microcontroller, a microprocessor, or other data processing chip in some embodiments. The processor 302 is generally used to control the overall operation of the computer device. In this embodiment, the processor 302 is used to run the computer-readable instructions or process data stored in the memory 301, such as running the computer-readable instructions of the above-mentioned nuclear power overhaul industrial safety management and control method.

[0128] The network interface 303 may include a wireless network interface or a wired network interface. The network interface 303 is generally used to establish a communication connection between the computer device and other electronic devices.

[0129] As an implementation of the above method, the present invention provides an embodiment of a computer-readable storage medium, and the embodiment of the computer-readable storage medium corresponds to the embodiment of the above nuclear power overhaul industrial safety management and control method.

[0130] The computer-readable storage medium described in this embodiment stores computer-readable instructions, and the computer-readable instructions can be executed by at least one processor to enable the at least one processor to perform the steps of the above-mentioned nuclear power overhaul industrial safety management and control method.

[0131] The nuclear power overhaul industrial safety management and control method, device, computer equipment and computer-readable storage medium of this embodiment automatically generates and displays high-risk license overview data, so that the overall progress of industrial safety high-risk operations in the entire overhaul is clear at a glance; automatically generates and displays today's high-risk license management and control data, which is convenient for industrial safety personnel to quickly locate today's high-risk license operations and improve the efficiency of today's high-risk license operation management and control work; automatically generates and displays daily hidden danger trend data, which is convenient for industrial safety personnel to focus on monitoring and optimizing industrial safety high-risk operations at key times; automatically generates and displays safety event statistics, which is convenient for various departments to better cooperate with industrial safety personnel to do a good job in the management and control of industrial safety high-risk operations, and ensure the safety and progress of industrial safety high-risk operations; automatically generates and displays today's high-risk operation list, which is convenient for various departments to view the current overhaul today's high-risk operation list and reasonably arrange personnel to do a good job in on-site safety management and risk analysis.

[0132] The above-mentioned embodiments only express several implementation methods of the present invention, and the description thereof is relatively specific and detailed, but it cannot be understood as limiting the scope of the patent of the present invention. It should be pointed out that, for ordinary technicians in this field, several variations and improvements can be made without departing from the concept of the present invention, which all belong to the protection scope of the present invention. Therefore, the protection scope of the patent of the present invention shall be subject to the attached claims.

Claims

1. A nuclear power overhaul industrial safety management and control method, characterized in that: The following steps are involved: Step 101, during the overhaul preparation period, input the overhaul completion preparation work order data; Step 102: During the overhaul implementation, the overhaul industrial safety management and control data is generated and displayed based on the overhaul completion preparation work order data.

2. The nuclear power overhaul industrial safety management and control method according to claim 1, characterized in that: The overhaul completion preparation work order data includes the work order data of each overhaul completion preparation. The work order data includes the following field information of the work order: planned start time, planned completion time, operation area, responsible unit, license type, work order status, hidden dangers, deviations, praise, good practices and mercurochrome; The "License Type" field information of the work order includes RWP1, RWP2, and RWP3; The "Work Order Status" field of a work order includes: Not Started, Started, and Completed; The "Hazard" field information of the work order includes the following field information: self-inspection hidden dangers and external inspection hidden dangers; the "External inspection hidden dangers" field information includes: the number of external inspection hidden dangers and the time of external inspection hidden dangers; the "Self-inspection hidden dangers" field information includes: the number of self-inspection hidden dangers and the time of self-inspection hidden dangers.

3. The nuclear power overhaul industrial safety management and control method according to claim 2 is characterized in that: Overhaul industrial safety control data including high-risk license overview data; The high-risk license overview data includes the percentage of licenses that have not started, the percentage of licenses that have started, the percentage of licenses that have been completed, all work order data of licenses that have not started, all work order data of licenses that have started, and all work order data of licenses that have been completed; According to the overhaul completion preparation work order data, generate and display the high-risk license overview data, including the following steps: In the overhaul completion preparation work order data, all work order data with the License Type field information of RWP1 or RWP2 are counted as all work order data of high-risk licenses; In the overhaul completion preparation work order data, all work order data with the "License Type" field information of "RWP1" or "RWP2" and the "Work Order Status" field information of "Not Started" are counted as all work order data of the started high-risk licenses; Count the percentage of the number of work order data for high-risk licenses that have been started to the number of work order data for high-risk licenses, and use this as the percentage of the number of high-risk licenses that have not been started; In the overhaul completion preparation work order data, all work order data with the License Type field information of RWP1 or RWP2 and the Work Order Status field information of Started are counted as all work order data of the started high-risk licenses; The percentage of the work order data of the high-risk licenses that have been started to the work order data of the high-risk licenses is counted as the percentage of the number of high-risk licenses that have been started; In the overhaul completion preparation work order data, all work order data with the License Type field information of RWP1 or RWP2 and the Work Order Status field information of Completed are counted as all work order data of completed high-risk licenses; Count the percentage of the number of work order data of completed high-risk licenses to the number of work order data of high-risk licenses, and use this as the percentage of the number of completed high-risk licenses; The percentage of high-risk licenses that have not been started, the percentage of high-risk licenses that have been started, and the percentage of high-risk licenses that have been completed are displayed in the form of a pie chart. Click the corresponding color block in the pie chart to further display all work order data for the corresponding high-risk license.

4. The nuclear power overhaul industrial safety management and control method according to claim 2 is characterized in that: Overhaul industrial safety control data also includes today’s high-risk license control data; Today's high-risk license control data includes all work order data of high-risk licenses in each operating area, the number of high-risk licenses in each operating area, the planned execution deviation of each work order of high-risk licenses in each operating area, all work order data of high-risk licenses in each responsible unit, the number of high-risk licenses in each responsible unit, the planned execution deviation of each work order of high-risk licenses in each responsible unit, all work order data of RWP1-level high-risk licenses, the number of RWP1-level high-risk licenses, the planned execution deviation of each work order of RWP1-level high-risk licenses, all work order data of RWP2-level high-risk licenses, the number of RWP2-level high-risk licenses and the planned execution deviation of each work order of RWP2-level high-risk licenses; According to the overhaul completion preparation work order data, today's high-risk license control data is generated and displayed, including the following steps: In the overhaul completion preparation work order data, all work order data with the same "Operation Area" field information and "License Type" field information of "RWP1" or "RWP2" are counted as all work order data of a high-risk license for an operation area; the number of work order data of a high-risk license for an operation area is counted as the number of high-risk licenses for an operation area; In the overhaul completion preparation work order data, all work order data with the same "Responsible Unit" field information and "License Type" field information of "RWP1" or "RWP2" are counted as all work order data of a responsible unit high-risk license; Count the number of work order data of a responsible unit's high-risk license as the number of a responsible unit's high-risk license; In the overhaul completion preparation work order data, all work order data with the field information of "License Type" as "RWP1" are counted as all work order data of RWP1 high-risk licenses; Count the number of work order data for RWP1 high-risk licenses as the number of RWP1 high-risk licenses; In the overhaul completion preparation work order data, all work order data with the field information of "License Type" as "RWP2" are counted as all work order data of RWP2 high-risk licenses; Count the number of work order data for RWP2 high-risk licenses as the number of RWP2 high-risk licenses; The planned execution deviation of a work order is obtained by comparing the Planned Start Time and Planned Completion Time field information of the work order with the time of the day by percentage. The number of high-risk licenses for each operating area, the number of high-risk licenses for each responsible unit, the number of RWP1 high-risk licenses, and the number of RWP2 high-risk licenses are displayed in the form of bar charts. Click on the bar chart to further display all work order data corresponding to the high-risk license and the planned execution deviation of each work order.

5. The nuclear power overhaul industrial safety management and control method according to claim 2, characterized in that: Overhaul industrial safety control data also includes: daily hidden danger trend data; Daily hidden danger trend data includes the number of hidden dangers detected by self-inspection and the number of hidden dangers detected by external inspection; Generate and display daily hidden danger trend data based on the number of overhaul preparation work orders, including the following steps: In the overhaul completion preparation work order data, the self-inspection hidden danger time in the Self-inspection hidden danger field information is counted as the sum of the self-inspection hidden danger quantities of all work orders per day to obtain the daily self-inspection hidden danger quantity; In the overhaul completion preparation work order data, the external hidden danger time in the "External hidden danger inspection" field information is counted as the sum of the external hidden danger inspection quantity of all work orders per day to obtain the daily external hidden danger inspection quantity; The number of hidden dangers found through self-inspection every day and the number of hidden dangers found through external inspection every day are displayed in the form of line graphs respectively.

6. The nuclear power overhaul industrial safety management and control method according to claim 2, characterized in that: The overhaul industry safety control data also includes: safety incident statistics; The statistical data of security incidents include hidden danger work order data, the number of hidden danger work orders, the hidden danger work order data of each department, the number of hidden danger work orders of each department, deviation work order data, the number of deviation work orders of each department, the number of deviation work orders of each department, praise work order data, the number of praise work orders, the praise work order data of each department, the number of praise work orders of each department, good practice work order data, the number of good practice work orders, the good practice work order data of each department, the number of good practice work orders of each department, mercurochrome work order data, the number of mercurochrome work orders, the mercurochrome work order data of each department and the number of mercurochrome work orders of each department; Generate and display security incident statistics based on the number of work orders prepared for overhaul completion, including the following steps: In the overhaul completion preparation work order data, all work order data with non-empty "Hazard" field information are counted as hidden danger work order data, and the number of work order data with non-empty "Hazard" field information is counted as the number of hidden danger work orders; In the overhaul completion preparation work order data, all work order data with the same "Department" field information and non-empty "Hazard" field information are counted as department hidden danger work order data, and the number of work order data with the same "Department" field information and non-empty "Hazard" field information is counted as the number of department hidden danger work orders; In the overhaul completion preparation work order data, all work order data with non-empty "Deviation" field information are counted as deviation work order data, and the number of work order data with non-empty "Deviation" field information is counted as the number of deviation work orders; In the overhaul completion preparation work order data, all work order data with the same "Department" field information and non-empty "Deviation" field information are counted as department deviation work order data, and the number of work order data with the same "Department" field information and non-empty "Deviation" field information is counted as the number of department deviation work orders; In the overhaul completion preparation work order data, all the work order data whose "Praise" field information is not empty are counted as praise work order data, and the number of work order data whose "Praise" field information is not empty is counted as the number of praise work orders; In the overhaul completion preparation work order data, all work order data with the same "Department" field information and non-empty "Praise" field information are counted as department praise work order data, and the number of work order data with the same "Department" field information and non-empty "Praise" field information is counted as the number of department praise work orders; In the overhaul completion preparation work order data, all the work order data whose "Good Practice" field information is not empty are counted as good practice work order data, and the number of work order data whose "Good Practice" field information is not empty is counted as the number of good practice work orders; In the overhaul completion preparation work order data, all work order data with the same "Department" field information and non-empty "Good Practice" field information are counted as the department good practice work order data, and the number of work order data with the same "Department" field information and non-empty "Good Practice" field information is counted as the number of department good practice work orders; In the overhaul completion preparation work order data, all work order data whose "Mercury Red Syrup" field information is not empty are counted as the Mercury Red Syrup work order data, and the number of work order data whose "Mercury Red Syrup" field information is not empty is counted as the number of Mercury Red Syrup work orders; In the overhaul completion preparation work order data, all work order data with the same "Department" field information and non-empty "Mercury Red" field information are counted as the department and room merccury red work order data, and the number of work order data with the same "Department" field information and non-empty "Mercury Red" field information is counted as the department and room merccury red work order quantity; The number of hidden danger work orders, the number of hidden danger work orders in each department, the number of deviation work orders, the number of deviation work orders in each department, the number of commendation work orders, the number of commendation work orders in each department, the number of good practice work orders, the number of good practice work orders in each department, the number of mercurochrome work orders and the number of mercurochrome work orders in each department are displayed in the form of bar charts. Click on the bar chart to further display the corresponding work order data.

7. The nuclear power overhaul industrial safety management and control method according to claim 2, characterized in that: The overhaul industrial safety control data also includes: today's high-risk operation data; Today's high-risk operation data includes today's high-risk operation list; According to the number of overhaul preparation work orders, today's high-risk operation data is generated and displayed, including the following steps: In the overhaul completion preparation work order data, all work order data with the "Planned Start Time" field information being today and before today, the "Planned Completion Time" field information being after today, and the "License Type" field information being "RWP1" or "RWP2" are counted to form a list of today's high-risk operations and display it; Click on the work order data in today's high-risk job list and jump to the corresponding data system by linking the EAM system.

8. A nuclear power overhaul industrial safety control device, characterized in that: include: The data acquisition module (201) is used to input the overhaul completion preparation work order data during the overhaul preparation period; A data processing module (202) is used to generate overhaul industrial safety management and control data according to the overhaul completion preparation work order data during the overhaul implementation period; The data display module (203) is used to display the overhaul industrial safety management and control data.

9. A computer device comprising a memory and a processor, wherein the memory stores computer-readable instructions, characterized in that: When the processor executes the computer-readable instructions, the steps of the nuclear power overhaul industrial safety management and control method as described in any one of claims 1-7 are implemented.

10. A computer-readable storage medium having computer-readable instructions stored thereon, characterized in that: When the computer-readable instructions are executed, the steps of the nuclear power overhaul industrial safety management and control method as described in any one of claims 1-7 are implemented.

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