Hydropower station equipment defect management method and system

Abstract

The invention discloses a hydropower station equipment defect management method and system. The method comprises the following steps: acquiring daily inspection information of a worker on hydropower station equipment, and carrying out potential defect investigation, confirmation, identification and recording; making a corresponding processing scheme according to the recorded defects, performing cost and feasibility evaluation, selecting an optimal defect processing scheme according to an evaluation result, and performing defect processing through manpower and maintenance equipment configuration through the optimal processing scheme; checking and accepting the target hydropower station equipment after defect processing, and generating a defect processing report according to a checking and accepting result; and performing intelligent filing management on the defect processing report, the defect identification table and the defect record table. Defect positioning can be accurately carried out without errors, and the success rate and accuracy of defect discovery are improved. By performing multi-dimensional evaluation on the formulated processing scheme, the waste of maintenance cost and reasonable utilization of maintenance resources can be avoided, and the implementation reliability of the processing scheme can be ensured.

Description

Technical Field

[0001] The present invention relates to the technical field of equipment detection, and in particular to a method and system for managing equipment defects in a hydropower station. Background Art

[0002] In the daily operation of the hydropower station, in order to ensure the normal operation of the hydropower unit, and also to meet the requirements of operation, control, maintenance, overhaul and operation management of the hydropower unit during normal operation, auxiliary equipment needs to be set up for assistance. Once the auxiliary equipment fails, it is not only easy to cause the damage of the equipment, but also to cause safety accidents. Therefore, during the operation of the hydropower station, the maintenance and repair of the auxiliary equipment must be done well so that it can maintain a stable state for a long time. Defect intelligent tracking and positioning technology refers to a set of technical systems that identify, locate, track and process defects in software, hardware or systems through automation and intelligent means. With the increasing complexity of software and hardware systems, defect management and repair have become a key link to ensure product quality and improve user experience. The existing hydropower station equipment defect detection is generally carried out manually and then the technical staff formulates the corresponding treatment plan for processing. The judgment method and the formulation and implementation of the treatment plan are all determined by human subjectivity. The strong subjectivity leads to the occurrence of tight and wasteful maintenance resources in the station, which increases the processing cost and reduces the practicality. Summary of the invention

[0003] In response to the above-mentioned problems, the present invention provides a method and system for managing defects in hydropower station equipment to solve the problems mentioned in the background technology, that is, manual inspection is carried out and then technical personnel formulate corresponding treatment plans. The relevant judgment methods and the formulation and execution of treatment plans are all determined by human subjectivity. The strong subjectivity leads to tension and waste of maintenance resources within the station, increases processing costs, and reduces practicality.

[0004] A method for managing defects in hydropower station equipment comprises the following steps:

[0005] Obtain daily inspection information of hydropower station equipment by staff and conduct potential defect investigation, confirmation, identification and record;

[0006] Formulate corresponding treatment plans based on recorded defects and conduct cost and feasibility assessments. Select the best defect treatment plan based on the assessment results, and use the best treatment plan to configure manpower and maintenance equipment to handle defects;

[0007] Acceptance inspection of target hydropower station equipment after defect treatment, and generation of defect treatment report based on the acceptance results;

[0008] Intelligently archive and manage defect handling reports, defect identification forms and defect record forms.

[0009] Preferably, the obtaining of routine inspection information of hydropower station equipment by staff and conducting potential defect investigation, confirmation, identification and recording includes:

[0010] Determine the individual workflow and joint workflow for each water station equipment, and determine the inspection indicators for each hydropower station equipment based on the individual workflow and joint workflow;

[0011] Collect the staff's daily inspection information of the hydropower station equipment according to the relevant mapping information of the inspection indicators, use static code analysis tools and dynamic debugging tools to check for defects in the daily inspection information, and determine potential defects based on the inspection results;

[0012] Determine the defect object and impact scope of the potential defect and confirm the defect based on the phenomenon description of the potential defect;

[0013] Obtain the defect type of the potential defect, determine the defect identification qualification attribute based on the defect type, select an identification professional or team according to the defect identification qualification attribute, and obtain the identification result of the potential defect by the identification professional or team;

[0014] The identification results, staff identity information, defect discovery time and location, description of the potential defect phenomenon, and treatment opinions are recorded and stored in association.

[0015] Preferably, the method of formulating corresponding treatment plans according to the recorded defects and conducting cost and feasibility assessments, selecting the best defect treatment plan according to the assessment results, and implementing the configuration of manpower and maintenance equipment to handle the defects through the best treatment plan includes:

[0016] Obtain the defect nature and defect cause of the recorded defects, determine the processing time limit based on the defect nature and defect cause, determine the manpower requirements based on the processing time limit, and formulate multiple processing plans based on the manpower requirements;

[0017] Evaluate the tool cost and resource cost of each treatment plan to obtain a cost rating. At the same time, obtain the operation impact parameters of each treatment plan, and conduct a feasibility assessment on each treatment plan based on the operation impact parameters to obtain the assessment results.

[0018] Select the best defect handling solution based on the evaluation results and the preset weights of cost and feasibility, and obtain the processing flow description parameters of the best defect handling solution;

[0019] Determine the processing personnel attributes and equipment attributes according to the processing flow description parameters, and implement manpower and maintenance equipment configuration to handle defects based on the processing personnel attributes and equipment attributes.

[0020] Preferably, the acceptance of the target hydropower station equipment after defect treatment and generating a defect treatment report according to the acceptance result include:

[0021] Determine the workflow parameters of the target hydropower station equipment after defect treatment, and determine the inspection process and test process based on the workflow parameters and defect indicators;

[0022] Inspect and test the target hydropower station equipment after defect treatment according to the inspection process and test process to obtain the index values ​​of multiple acceptance indicators;

[0023] Encrypt the indicator values ​​of multiple acceptance indicators and upload them to the terminal where the acceptance personnel are located for review, and determine whether the acceptance is completed based on the review results;

[0024] Obtain unknown problems encountered during defect handling and their corresponding solutions and generate defect resolution experience, and generate a defect handling report based on the defect resolution experience.

[0025] Preferably, the intelligent archiving management of the defect handling report, defect identification form and defect record form includes:

[0026] Design a unified defect management template based on hydropower stations and configure multiple sections of information in the unified defect management template;

[0027] Import the various record parameters in the defect handling report, defect identification form and defect record form into each section to generate a defect handling file;

[0028] Obtain the staff's review requirements, determine the display format of the defect file based on the review requirements, and determine the storage requirements based on the display format;

[0029] Select the archiving method based on storage needs and store the processed defect files in the unit database through the archiving method for intelligent archiving management.

[0030] A hydropower station equipment defect management system, the system comprising:

[0031] The acquisition module is used to obtain the daily inspection information of the hydropower station equipment by the staff and to conduct potential defect investigation, confirmation, identification and recording;

[0032] The processing module is used to formulate corresponding processing plans based on the recorded defects and conduct cost and feasibility evaluation, select the best defect processing plan based on the evaluation results, and implement the configuration of manpower and maintenance equipment to handle the defects through the best processing plan;

[0033] A generation module is used to accept the target hydropower station equipment after defect treatment and generate a defect treatment report based on the acceptance results;

[0034] The filing management module is used to intelligently file and manage defect handling reports, defect identification forms, and defect record forms.

[0035] Preferably, the acquisition module includes:

[0036] The first determination submodule is used to determine the individual workflow and the joint workflow of each water single station equipment, and determine the inspection index of each hydropower station equipment according to the individual workflow and the joint workflow;

[0037] The troubleshooting submodule is used to collect the daily inspection information of the hydropower station equipment by the staff according to the relevant mapping information of the inspection indicators, to troubleshoot the daily inspection information through static code analysis tools and dynamic debugging tools, and to determine the potential defects according to the troubleshooting results;

[0038] The confirmation submodule is used to determine the defect object and impact scope of the potential defect and to confirm the defect based on the phenomenon description of the potential defect;

[0039] An identification submodule is used to obtain the defect type of the potential defect, determine the defect identification qualification attribute based on the defect type, select an identification professional or team according to the defect identification qualification attribute, and obtain the identification result of the potential defect by the identification professional or team;

[0040] The recording submodule is used to record and store the identification results, the identity information of the staff, the time and location of defect discovery, the phenomenon description of the potential defect, and the handling opinions.

[0041] Preferably, the processing module comprises:

[0042] Formulate submodules to obtain the defect nature and defect cause of recorded defects, determine the processing time limit based on the defect nature and defect cause, determine the manpower requirements based on the processing time limit, and formulate multiple processing plans based on the manpower requirements;

[0043] The evaluation submodule is used to evaluate the tool cost and resource cost of each treatment plan, obtain the cost rating, and obtain the operation impact parameters of each treatment plan. According to the operation impact parameters, the feasibility of each treatment plan is evaluated to obtain the evaluation results;

[0044] A selection submodule is used to select the best defect handling solution according to the evaluation results and the preset weights of cost and feasibility, and obtain the processing flow description parameters of the best defect handling solution;

[0045] The processing submodule is used to determine the processing personnel attributes and equipment attributes according to the processing flow description parameters, and implement the manpower and maintenance equipment configuration to handle defects according to the processing personnel attributes and equipment attributes.

[0046] Preferably, the generating module comprises:

[0047] The second determination submodule is used to determine the workflow parameters of the target hydropower station equipment after the defect is processed, and determine the inspection process and the test process according to the workflow parameters and the defect index;

[0048] The inspection and testing submodule is used to inspect and test the target hydropower station equipment after defect treatment according to the inspection process and the testing process to obtain the index values ​​of multiple acceptance indicators;

[0049] The review submodule is used to encrypt the indicator values ​​of multiple acceptance indicators and upload them to the terminal where the acceptance personnel are located for review, and determine whether the acceptance is completed based on the review results;

[0050] The generation submodule is used to obtain unknown problems encountered during defect handling and their corresponding solutions and generate defect resolution experience, and generate a defect handling report based on the defect resolution experience.

[0051] Preferably, the archive management module includes:

[0052] Design submodule, used to design a unified defect management template based on hydropower stations and configure multiple section information in the unified defect management template;

[0053] The import submodule is used to import the various record parameters in the defect handling report, defect identification form and defect record form into each section to generate a defect handling file;

[0054] The third determination submodule is used to obtain the staff's reference requirements, determine the display format of the defect file according to the reference requirements, and determine the storage requirements according to the display format;

[0055] The filing management submodule is used to select the filing method based on storage needs and store the processed defect files in the unit database through the filing method for intelligent filing management.

[0056] Other features and advantages of the present invention will be described in the following description, and partly become apparent from the description, or understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained by the structures particularly pointed out in the written description and the accompanying drawings.

[0057] The technical solution of the present invention is further described in detail below through the accompanying drawings and embodiments. BRIEF DESCRIPTION OF THE DRAWINGS

[0058] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0059] Figure 1 A work flow chart of a method for managing defects in hydropower station equipment provided by the present invention;

[0060] Figure 2 Another work flow chart of a method for managing defects in hydropower station equipment provided by the present invention;

[0061] Figure 3 This is a schematic diagram of the structure of a hydropower station equipment defect management system provided by the present invention;

[0062] Figure 4 This is a structural schematic diagram of a generation module in a hydropower station equipment defect management system provided by the present invention. DETAILED DESCRIPTION

[0063] Exemplary embodiments will be described in detail herein, examples of which are shown in the accompanying drawings. When the following description refers to the drawings, the same numbers in different drawings represent the same or similar elements unless otherwise indicated. The embodiments described in the following exemplary embodiments do not represent all embodiments consistent with the present disclosure. Instead, they are merely examples of devices and methods consistent with some aspects of the present disclosure as detailed in the appended claims.

[0064] In the daily operation of a hydropower station, in order to ensure the normal operation of the hydropower unit, and also to meet the requirements of the operation, control, maintenance, overhaul and operation management of the hydropower unit during the normal operation, auxiliary equipment needs to be set up for assistance. Once the auxiliary equipment fails, it is not only easy to cause the destruction of the equipment, but also to cause safety accidents. Therefore, during the operation of the hydropower station, the maintenance and repair of the auxiliary equipment must be done well so that it can maintain a stable state for a long time. The intelligent defect tracking and positioning technology refers to a set of technical systems that identify, locate, track and process defects in software, hardware or systems through automated and intelligent means. With the continuous improvement of the complexity of software and hardware systems, the management and repair of defects have become a key link to ensure product quality and improve user experience. The existing hydropower station equipment defect detection is generally carried out manually and then the technical staff formulates the corresponding treatment plan for processing. The judgment method and the formulation and execution of the treatment plan are all determined by human subjectivity. The strong subjectivity leads to the occurrence of tension and waste of maintenance resources in the station, which increases the processing cost and reduces the practicality. In order to solve the above problems, this embodiment discloses a method for managing defects in hydropower station equipment.

[0065] A method for managing defects in hydropower station equipment, such as Figure 1 As shown, the following steps are included:

[0066] Step S101, obtaining routine inspection information of hydropower station equipment by staff and conducting potential defect investigation, confirmation, identification and recording;

[0067] Step S102: formulate corresponding processing plans according to the recorded defects and conduct cost and feasibility assessments, select the best defect processing plan according to the assessment results, and implement manpower and maintenance equipment configuration to process the defects through the best processing plan;

[0068] Step S103, accepting the target hydropower station equipment after defect treatment, and generating a defect treatment report according to the acceptance result;

[0069] Step S104: Intelligently archive and manage the defect handling report, defect identification form, and defect record form.

[0070] The working principle of the above technical solution is: obtain the staff's daily inspection information on hydropower station equipment and conduct potential defect investigation, confirmation, identification and recording; formulate corresponding treatment plans based on the recorded defects and conduct cost and feasibility assessments, select the best defect treatment plan based on the evaluation results, and implement defect treatment through the best treatment plan to configure manpower and maintenance equipment; accept the target hydropower station equipment after defect treatment, and generate a defect treatment report based on the acceptance results; and intelligently archive and manage the defect treatment report, defect identification form and defect record form.

[0071] The beneficial effects of the above technical scheme are as follows: by dynamically and statically identifying and recording the potential defects of the equipment discovered by the staff, the defects can be accurately and without error located, thereby improving the success rate and accuracy of defect discovery. Furthermore, by conducting a multi-dimensional evaluation of the formulated treatment plan, it is possible to avoid the waste of maintenance costs and the rational use of maintenance resources while ensuring the reliability of the implementation of the treatment plan, thereby improving the staff's experience and practicality, and solving the problem mentioned in the prior art that manual investigation is carried out and then the technical personnel formulate the corresponding treatment plan, and the corresponding judgment method and the formulation and execution of the treatment plan are all determined by human subjectivity. The strong subjectivity leads to the occurrence of tension and waste of maintenance resources within the station, increases the processing cost, and reduces the practicality.

[0072] In one embodiment, the obtaining of routine inspection information of hydropower station equipment by staff and troubleshooting, confirming, identifying and recording potential defects includes:

[0073] Determine the individual workflow and joint workflow for each water station equipment, and determine the inspection indicators for each hydropower station equipment based on the individual workflow and joint workflow;

[0074] Collect the staff's daily inspection information of the hydropower station equipment according to the relevant mapping information of the inspection indicators, use static code analysis tools and dynamic debugging tools to check for defects in the daily inspection information, and determine potential defects based on the inspection results;

[0075] Determine the defect object and impact scope of the potential defect and confirm the defect based on the phenomenon description of the potential defect;

[0076] Obtain the defect type of the potential defect, determine the defect identification qualification attribute based on the defect type, select an identification professional or team according to the defect identification qualification attribute, and obtain the identification result of the potential defect by the identification professional or team;

[0077] The identification results, staff identity information, defect discovery time and location, description of the potential defect phenomenon, and treatment opinions are recorded and stored in association.

[0078] In this embodiment, the individual workflow is represented as a workflow that a single hydropower plant device can perform by itself;

[0079] In this embodiment, the joint workflow is represented as a workflow that requires the joint operation of multiple hydropower station equipment.

[0080] The beneficial effects of the above technical solution are: according to the relevant mapping information of the inspection indicators of each hydropower station equipment, the staff's daily inspection information on the hydropower station equipment is collected, and defect troubleshooting is carried out, which can quickly locate defects and improve the speed of defect search. Further, the defect type of potential defects is obtained and the defect identification qualification attributes are determined, professional identification personnel are selected, and the accuracy of the identification results is improved, so as to determine the defect solution in a targeted manner.

[0081] In one embodiment, Figure 2 As shown, the corresponding processing plan is formulated according to the recorded defects and the cost and feasibility are evaluated. The best defect processing plan is selected according to the evaluation results, and the manpower and maintenance equipment configuration are implemented through the best processing plan to process the defects, including:

[0082] Step S201: Obtain the defect nature and defect cause of the recorded defect, determine the processing time limit according to the defect nature and defect cause, determine the manpower demand according to the processing time limit, and formulate multiple processing plans based on the manpower demand;

[0083] Step S202: Evaluate the tool cost and resource cost of each processing solution to obtain a cost rating, and simultaneously obtain the operation impact parameters of each processing solution, and perform a feasibility evaluation on each processing solution according to the operation impact parameters to obtain an evaluation result;

[0084] Step S203: Select the best defect handling solution according to the evaluation results and the preset weights of cost and feasibility, and obtain the processing flow description parameters of the best defect handling solution;

[0085] Step S204: Determine the processing personnel attributes and equipment attributes according to the processing flow description parameters, and implement manpower and maintenance equipment configuration to perform defect processing according to the processing personnel attributes and equipment attributes.

[0086] The beneficial effects of the above technical solution are: determining the processing time limit and formulating multiple processing plans based on the defect nature and defect cause of the defect, which can ensure the diversity and pertinence of the processing plans, improve the processing speed and efficiency, and further, conduct cost evaluation on each processing plan, select the best defect processing plan, and obtain the processing flow description parameters of the best defect processing plan, which can improve the defect processing efficiency and reduce the possibility of defect recurrence.

[0087] In this embodiment, the defect nature and defect cause of the recorded defect are obtained, a processing time limit is determined according to the defect nature and defect cause, a manpower requirement is determined according to the processing time limit, and multiple processing plans are formulated based on the manpower requirement, including:

[0088] Acquire multiple equipment operating parameters under the recorded defects, determine abnormal operation indicators according to the multiple equipment operating parameters, and acquire indicator values ​​of the abnormal operation indicators;

[0089] Determine the defect nature of the recorded defect based on the index value of the abnormal operation index and the preset defect judgment standard, and determine the cause of the defect based on the data abnormality cause of the abnormal operation index;

[0090] Determine the defect type according to the defect nature, the defect type includes: functional defect, performance defect and safety defect;

[0091] Determine the defect mode according to the defect type and defect cause, determine the instantiation condition parameters for recording the defect according to the defect mode, and determine the standardized processing strategy for recording the defect based on the instantiation condition parameters;

[0092] Determine the defect handling time limit according to the standardized handling strategy, and determine the processing efficiency limit parameters under the defect handling time limit;

[0093] Determine the manpower demand according to the processing efficiency limit parameter, and determine the technical personnel allocation state parameter and the auxiliary personnel allocation state parameter according to the manpower demand;

[0094] Obtain the main component defect characteristics of the recorded defects, determine the actual value of the defect according to the main component defect characteristics, and substitute the actual value of the defect into the preset defect quantification model to determine the estimation of the defect handling workload;

[0095] Determine a plurality of first processing solutions according to the defect processing workload estimation, the technical personnel allocation status parameters, the auxiliary personnel allocation status parameters, and the defect processing time limit;

[0096] Obtaining the operation index and the response index of each first processing scheme, and determining the complexity of each first processing scheme according to the operation index and the response index;

[0097] A plurality of second processing schemes whose complexity is less than or equal to a preset threshold are used as formulated schemes.

[0098] In this embodiment, the nature of the defects includes: emergency defects (when serious, the equipment cannot operate safely and must be handled), critical defects (when serious, the entire factory equipment cannot operate and a safety accident occurs) and serious defects (does not affect the continued operation of the equipment, but has a significant impact on the safe operation in the near future and does not need to be handled immediately).

[0099] The beneficial effects of the above technical solution are: it can ensure that the implementation requirements of the treatment plan are relatively low, while also being able to reasonably implement the allocation of technical personnel and auxiliary personnel, thereby ensuring the rationality and reliability of the plan.

[0100] In one embodiment, the acceptance of the target hydropower station equipment after defect treatment and generating a defect treatment report according to the acceptance result include:

[0101] Determine the workflow parameters of the target hydropower station equipment after defect treatment, and determine the inspection process and test process based on the workflow parameters and defect indicators;

[0102] Inspect and test the target hydropower station equipment after defect treatment according to the inspection process and test process to obtain the index values ​​of multiple acceptance indicators;

[0103] Encrypt the indicator values ​​of multiple acceptance indicators and upload them to the terminal where the acceptance personnel are located for review, and determine whether the acceptance is completed based on the review results;

[0104] Obtain unknown problems encountered during defect handling and their corresponding solutions and generate defect resolution experience, and generate a defect handling report based on the defect resolution experience.

[0105] The beneficial effects of the above technical solution are: obtaining and encrypting the indicator values ​​of multiple acceptance indicators according to the inspection process and the test process can ensure the security and privacy of the data and improve the audit efficiency. Furthermore, generating a defect handling report for unknown problems in the defect handling process and the corresponding solutions can help record the process and steps of solving the problem, provide reference and reference for similar problems in the future, and improve the ability to solve problems.

[0106] In one embodiment, the intelligent archiving management of the defect handling report, defect identification form and defect record form includes:

[0107] Design a unified defect management template based on hydropower stations and configure multiple sections of information in the unified defect management template;

[0108] Import the various record parameters in the defect handling report, defect identification form and defect record form into each section to generate a defect handling file;

[0109] Obtain the staff's review requirements, determine the display format of the defect file based on the review requirements, and determine the storage requirements based on the display format;

[0110] Select the archiving method based on storage needs and store the processed defect files in the unit database through the archiving method for intelligent archiving management.

[0111] The beneficial effects of the above technical solution are: by importing the various record parameters in the defect handling report, defect identification form and defect record form into a unified defect management template based on the hydropower station, the required information can be quickly found in the archives, avoiding duplication of work, thereby improving overall work efficiency. Furthermore, the processed defect archives are stored in the unit database according to query requirements, which can improve query efficiency and ensure the integrity of the archives.

[0112] In one embodiment, this embodiment also discloses a hydropower station equipment defect management system, such as Figure 3 As shown, the system includes:

[0113] The acquisition module 301 is used to obtain the daily inspection information of the hydropower station equipment by the staff and to check, confirm, identify and record potential defects;

[0114] Processing module 302, used to formulate corresponding processing plans according to the recorded defects and conduct cost and feasibility evaluation, select the best defect processing plan according to the evaluation results, and implement manpower and maintenance equipment configuration to process the defects through the best processing plan;

[0115] A generation module 303 is used to accept the target hydropower station equipment after defect treatment and generate a defect treatment report according to the acceptance result;

[0116] The filing management module 304 is used to intelligently file and manage the defect handling report, defect identification form and defect record form.

[0117] The working principle and beneficial effects of the above technical solution have been explained in the method embodiment and will not be repeated here.

[0118] In one embodiment, the acquisition module includes:

[0119] The first determination submodule is used to determine the individual workflow and the joint workflow of each water single station equipment, and determine the inspection index of each hydropower station equipment according to the individual workflow and the joint workflow;

[0120] The troubleshooting submodule is used to collect the daily inspection information of the hydropower station equipment by the staff according to the relevant mapping information of the inspection indicators, to troubleshoot the daily inspection information through static code analysis tools and dynamic debugging tools, and to determine the potential defects according to the troubleshooting results;

[0121] The confirmation submodule is used to determine the defect object and impact scope of the potential defect and to confirm the defect based on the phenomenon description of the potential defect;

[0122] An identification submodule is used to obtain the defect type of the potential defect, determine the defect identification qualification attribute based on the defect type, select an identification professional or team according to the defect identification qualification attribute, and obtain the identification result of the potential defect by the identification professional or team;

[0123] The recording submodule is used to record and store the identification results, the identity information of the staff, the time and location of defect discovery, the phenomenon description of the potential defect, and the handling opinions.

[0124] In one embodiment, the processing module comprises:

[0125] Formulate submodules to obtain the defect nature and defect cause of recorded defects, determine the processing time limit based on the defect nature and defect cause, determine the manpower requirements based on the processing time limit, and formulate multiple processing plans based on the manpower requirements;

[0126] The evaluation submodule is used to evaluate the tool cost and resource cost of each treatment plan, obtain the cost rating, and obtain the operation impact parameters of each treatment plan. According to the operation impact parameters, the feasibility of each treatment plan is evaluated to obtain the evaluation results;

[0127] A selection submodule is used to select the best defect handling solution according to the evaluation results and the preset weights of cost and feasibility, and obtain the processing flow description parameters of the best defect handling solution;

[0128] The processing submodule is used to determine the processing personnel attributes and equipment attributes according to the processing flow description parameters, and implement the configuration of manpower and maintenance equipment to handle defects according to the processing personnel attributes and equipment attributes.

[0129] In one embodiment, Figure 4 As shown, the generating module 303 includes:

[0130] The second determination submodule 3031 is used to determine the workflow parameters of the target hydropower station equipment after the defect is processed, and determine the inspection process and the test process according to the workflow parameters and the defect index;

[0131] The inspection and testing submodule 3032 is used to inspect and test the target hydropower station equipment after defect treatment according to the inspection process and the testing process to obtain the index values ​​of multiple acceptance indicators;

[0132] The review submodule 3033 is used to encrypt the indicator values ​​of multiple acceptance indicators and upload them to the terminal where the acceptance personnel are located for review, and determine whether the acceptance is completed based on the review results;

[0133] The generation submodule 3034 is used to obtain unknown problems encountered during the defect handling process and their corresponding solutions and generate defect resolution experience, and generate a defect handling report based on the defect resolution experience.

[0134] In one embodiment, the archive management module includes:

[0135] Design submodule, used to design a unified defect management template based on hydropower stations and configure multiple section information in the unified defect management template;

[0136] The import submodule is used to import the various record parameters in the defect handling report, defect identification form and defect record form into each section to generate a defect handling file;

[0137] The third determination submodule is used to obtain the staff's reference requirements, determine the display format of the defect file according to the reference requirements, and determine the storage requirements according to the display format;

[0138] The filing management submodule is used to select the filing method based on storage needs and store the processed defect files in the unit database through the filing method for intelligent filing management.

[0139] Those skilled in the art should understand that the first and second in the present invention merely refer to different application stages.

[0140] Other embodiments of the present disclosure will be readily apparent to those skilled in the art after considering the specification and practicing the disclosure disclosed herein. This application is intended to cover any variations, uses, or adaptations of the present disclosure that follow the general principles of the present disclosure and include common knowledge or customary techniques in the art that are not disclosed in the present disclosure. The specification and examples are to be considered exemplary only, and the true scope and spirit of the present disclosure are indicated by the following claims.

[0141] It should be understood that the present disclosure is not limited to the exact structures that have been described above and shown in the drawings, and that various modifications and changes may be made without departing from the scope thereof. The scope of the present disclosure is limited only by the appended claims.

Claims

1. A method for managing defects in hydropower station equipment, characterized in that: The following steps are involved: Obtain daily inspection information of hydropower station equipment by staff and conduct potential defect investigation, confirmation, identification and record; Formulate corresponding treatment plans based on recorded defects and conduct cost and feasibility assessments. Select the best defect treatment plan based on the assessment results, and use the best treatment plan to configure manpower and maintenance equipment to handle defects; Acceptance inspection of target hydropower station equipment after defect treatment, and generation of defect treatment report based on the acceptance results; Intelligently archive and manage defect handling reports, defect identification forms and defect record forms.

2. The method for managing defects in hydropower station equipment according to claim 1, characterized in that: The acquisition of routine inspection information of hydropower station equipment by staff and the investigation, confirmation, identification and recording of potential defects include: Determine the individual workflow and joint workflow for each water station equipment, and determine the inspection indicators for each hydropower station equipment based on the individual workflow and joint workflow; Collect the staff's daily inspection information of the hydropower station equipment according to the relevant mapping information of the inspection indicators, use static code analysis tools and dynamic debugging tools to check for defects in the daily inspection information, and determine potential defects based on the inspection results; Determine the defect object and impact scope of the potential defect and confirm the defect based on the phenomenon description of the potential defect; Obtain the defect type of the potential defect, determine the defect identification qualification attribute based on the defect type, select an identification professional or team according to the defect identification qualification attribute, and obtain the identification result of the potential defect by the identification professional or team; The identification results, staff identity information, defect discovery time and location, description of the potential defect phenomenon, and treatment opinions are recorded and stored in association.

3. The method for managing defects in hydropower station equipment according to claim 1, characterized in that: The above-mentioned corresponding treatment plans are formulated according to the recorded defects and cost and feasibility evaluation is carried out. The best defect treatment plan is selected according to the evaluation results, and the manpower and maintenance equipment configuration are implemented to handle the defects through the best treatment plan, including: Obtain the defect nature and defect cause of the recorded defects, determine the processing time limit based on the defect nature and defect cause, determine the manpower requirements based on the processing time limit, and formulate multiple processing plans based on the manpower requirements; Evaluate the tool cost and resource cost of each treatment plan to obtain a cost rating. At the same time, obtain the operation impact parameters of each treatment plan, and conduct a feasibility assessment on each treatment plan based on the operation impact parameters to obtain the assessment results. Select the best defect handling solution based on the evaluation results and the preset weights of cost and feasibility, and obtain the processing flow description parameters of the best defect handling solution; Determine the processing personnel attributes and equipment attributes according to the processing flow description parameters, and implement manpower and maintenance equipment configuration to handle defects based on the processing personnel attributes and equipment attributes.

4. The method for managing defects in hydropower station equipment according to claim 1, characterized in that: The target hydropower station equipment after defect treatment is inspected and accepted, and a defect treatment report is generated according to the inspection and acceptance results, including: Determine the workflow parameters of the target hydropower station equipment after defect treatment, and determine the inspection process and test process based on the workflow parameters and defect indicators; Inspect and test the target hydropower station equipment after defect treatment according to the inspection process and test process to obtain the index values ​​of multiple acceptance indicators; Encrypt the indicator values ​​of multiple acceptance indicators and upload them to the terminal where the acceptance personnel are located for review, and determine whether the acceptance is completed based on the review results; Obtain unknown problems encountered during defect handling and their corresponding solutions and generate defect resolution experience, and generate a defect handling report based on the defect resolution experience.

5. The method for managing defects in hydropower station equipment according to claim 1, characterized in that: The intelligent filing management of the defect handling report, defect identification form and defect record form includes: Design a unified defect management template based on hydropower stations and configure multiple sections of information in the unified defect management template; Import the various record parameters in the defect handling report, defect identification form and defect record form into each section to generate a defect handling file; Obtain the staff's review requirements, determine the display format of the defect file based on the review requirements, and determine the storage requirements based on the display format; Select the archiving method based on storage needs and store the processed defect files in the unit database through the archiving method for intelligent archiving management.

6. A hydropower station equipment defect management system, characterized in that: The system includes: The acquisition module is used to obtain the daily inspection information of the hydropower station equipment by the staff and to conduct potential defect investigation, confirmation, identification and recording; The processing module is used to formulate corresponding processing plans based on the recorded defects and conduct cost and feasibility evaluation, select the best defect processing plan based on the evaluation results, and implement the configuration of manpower and maintenance equipment to handle the defects through the best processing plan; A generation module is used to accept the target hydropower station equipment after defect treatment and generate a defect treatment report based on the acceptance results; The filing management module is used to intelligently file and manage defect handling reports, defect identification forms, and defect record forms.

7. The hydropower station equipment defect management system according to claim 6 is characterized in that: The acquisition module comprises: The first determination submodule is used to determine the individual workflow and the joint workflow of each water single station equipment, and determine the inspection index of each hydropower station equipment according to the individual workflow and the joint workflow; The troubleshooting submodule is used to collect the daily inspection information of the hydropower station equipment by the staff according to the relevant mapping information of the inspection indicators, to troubleshoot the daily inspection information through static code analysis tools and dynamic debugging tools, and to determine the potential defects according to the troubleshooting results; The confirmation submodule is used to determine the defect object and impact scope of the potential defect and to confirm the defect based on the phenomenon description of the potential defect; An identification submodule is used to obtain the defect type of the potential defect, determine the defect identification qualification attribute based on the defect type, select an identification professional or team according to the defect identification qualification attribute, and obtain the identification result of the potential defect by the identification professional or team; The recording submodule is used to record and store the identification results, the identity information of the staff, the time and location of defect discovery, the phenomenon description of the potential defect, and the handling opinions.

8. The hydropower station equipment defect management system according to claim 6 is characterized in that: The processing module comprises: Formulate submodules to obtain the defect nature and defect cause of recorded defects, determine the processing time limit based on the defect nature and defect cause, determine the manpower requirements based on the processing time limit, and formulate multiple processing plans based on the manpower requirements; The evaluation submodule is used to evaluate the tool cost and resource cost of each treatment plan, obtain the cost rating, and obtain the operation impact parameters of each treatment plan. According to the operation impact parameters, the feasibility of each treatment plan is evaluated to obtain the evaluation results; A selection submodule is used to select the best defect handling solution according to the evaluation results and the preset weights of cost and feasibility, and obtain the processing flow description parameters of the best defect handling solution; The processing submodule is used to determine the processing personnel attributes and equipment attributes according to the processing flow description parameters, and implement the manpower and maintenance equipment configuration to handle defects according to the processing personnel attributes and equipment attributes.

9. The hydropower station equipment defect management system according to claim 6, characterized in that: The generating module comprises: The second determination submodule is used to determine the workflow parameters of the target hydropower station equipment after the defect is processed, and determine the inspection process and the test process according to the workflow parameters and the defect index; The inspection and testing submodule is used to inspect and test the target hydropower station equipment after defect treatment according to the inspection process and the testing process to obtain the index values ​​of multiple acceptance indicators; The review submodule is used to encrypt the indicator values ​​of multiple acceptance indicators and upload them to the terminal where the acceptance personnel are located for review, and determine whether the acceptance is completed based on the review results; The generation submodule is used to obtain unknown problems encountered during defect handling and their corresponding solutions and generate defect resolution experience, and generate a defect handling report based on the defect resolution experience.

10. The hydropower station equipment defect management system according to claim 6, characterized in that: The archive management module comprises: Design submodule, used to design a unified defect management template based on hydropower stations and configure multiple section information in the unified defect management template; The import submodule is used to import the various record parameters in the defect handling report, defect identification form and defect record form into each section to generate a defect handling file; The third determination submodule is used to obtain the staff's reference requirements, determine the display format of the defect file according to the reference requirements, and determine the storage requirements according to the display format; The filing management submodule is used to select the filing method based on storage needs and store the processed defect files in the unit database through the filing method for intelligent filing management.

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