A digital management platform for power engineering construction quality

Abstract

The present invention belongs to the technical field of power engineering management, and specifically discloses a digital management platform for power engineering construction quality, including: determining the installation accuracy tolerance of each electrical equipment by identifying the correlation state between the material characteristics of each laying equipment and each buried equipment and the condition tolerance indication; monitoring the contact variables corresponding to each electrical equipment installed in a welding manner and a hinged manner, and analyzing the installation data indicators of each electrical equipment; simulating a variety of erosion intensity conditions that are closer to the actual operating environment by detecting the corresponding voltage fluctuation coefficient of each electrical equipment in the trial operation stage under randomly changed installation site conditions, and at the same time, by identifying the load conditions in the trial operation stage of the power engineering, analyzing the compliance coefficient of the trial operation of each electrical equipment, and finally judging whether the construction quality of the power engineering meets the standards, so as to achieve comprehensive control and management of the construction quality.

Description

Technical Field

[0001] The invention belongs to the technical field of power engineering management and relates to a digital management platform for power engineering construction quality. Background Art

[0002] With the rapid development of information technology and the deepening of digital transformation, all walks of life are actively exploring how to use digital technology to improve management efficiency, optimize business processes, and ensure product quality. In the field of power engineering, construction quality is directly related to the safe and stable operation of the power grid and the reliability of energy supply. Therefore, efficient and accurate management of construction quality is particularly important.

[0003] In the prior art, there are some solutions related to the digital management of power engineering projects. For example, a comprehensive digital management method and management system for smart construction sites with publication number CN118246809A can quickly determine whether the current status meets the set threshold through real-time monitoring of real-time construction progress and power system performance; the construction control subsystem adjusts the real-time construction data, and the power system monitoring subsystem detects and troubleshoots the power system in real time, thereby realizing intelligent control of construction and power systems; by calculating the mean, weight and adjustment coefficient of historical construction data, as well as judging and adjusting real-time data, digital control of the entire construction process and power system operation is realized.

[0004] Although the above scheme proposes some solutions for the digital management of power engineering, there are still the following limitations, specifically: 1. When conducting quality inspections on power engineering projects, the existing technology is more inclined to focus on ground-surface installed equipment such as transformers and circuit breakers, and the inspection of buried equipment is relatively lacking. In addition, the existing technology does not perform differentiated inspections on the installation methods of the equipment when troubleshooting.

[0005] 2. Existing technologies are often tested based on fixed environmental conditions, while in actual operation, environmental erosion changes dynamically. Since the test conditions are fixed, it is impossible to fully simulate the various complex situations and dynamic changes in the actual operating environment. Therefore, there are often certain deviations in the test results. This deviation may lead to inaccurate evaluation of electrical equipment performance, which in turn affects the decision-making of equipment selection, installation and operation and maintenance. Summary of the invention

[0006] In view of this, in order to solve the problems raised in the above background technology, a digital management platform for power engineering construction quality is proposed.

[0007] The purpose of the present invention can be achieved by the following technical solutions: The present invention provides a digital management platform for the construction quality of power engineering, including an installation information acquisition module, which is used to list various electrical equipment of the power engineering, including various laying equipment and various buried equipment, and obtain the material characteristics and equipment application characteristics of each electrical equipment. Each electrical equipment is numbered .

[0008] The installation allowable error determination module is used to detect the installation site conditions of each electrical device and determine the installation accuracy tolerance of each electrical device.

[0009] The installation process quality detection module is used to detect the connection data of each electrical equipment and analyze the installation accuracy measurement coefficient of each electrical equipment.

[0010] Performance quality test module, used to test each electrical equipment and analyze the stability coefficient of each electrical equipment test run And the compliance coefficient of each electrical equipment test run .

[0011] The construction quality result feedback module is used to construct the construction quality discriminant vector of the power project, and then identify whether the construction quality of the power project meets the standards.

[0012] Compared with the prior art, the present invention has the following beneficial effects: (1) The present invention identifies the correlation between the material properties of each laying equipment and each buried equipment and the condition tolerance indicators, and determines the installation accuracy tolerance of each electrical equipment accordingly, thereby providing clear standards and basis for quality inspection, thereby ensuring that different electrical equipment can fully adapt to various environmental conditions during the installation process.

[0013] (2) The present invention monitors the contact variables corresponding to the electrical equipment installed in welding and articulated ways, so as to timely discover the problems existing in the installation process of the electrical equipment with different installation methods. By analyzing the installation data indicators of each electrical equipment, the comprehensive control and management of the construction quality can be achieved, thereby improving the comprehensive controllability of the construction quality.

[0014] (3) The present invention detects the corresponding voltage fluctuation coefficient of each electrical device during the trial operation phase under the installation site conditions, and then uses a random function to generate a random transformation factor of the environmental erosion intensity within a specified transformation range, simulating a variety of erosion intensity conditions that are closer to the actual operating environment, thereby more accurately evaluating the voltage stability of electrical equipment under different environmental conditions and improving the accuracy and reliability of the evaluation. At the same time, by identifying the load conditions during the trial operation phase of the power project, various working conditions in actual operation can be simulated, thereby analyzing the compliance coefficient of the trial operation of each electrical equipment, and timely discovering possible problems of the equipment under specific load conditions, ensuring that the system can operate stably after formal commissioning.

[0015] (4) By quantifying the installation accuracy, environmental adaptability and layout rationality of electrical equipment, the present invention can more accurately evaluate each link in the construction process, reduce the subjectivity and uncertainty of human judgment, and thus improve the accuracy of construction quality assessment. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for describing the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

[0017] Figure 1 This is a schematic diagram of the connection of the system modules of the present invention. DETAILED DESCRIPTION

[0018] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0019] See also Figure 1 As shown, the present invention provides a digital management platform for power engineering construction quality, including: an installation information acquisition module, an installation permission error determination module, an installation process quality detection module, a performance quality testing module, and a construction quality result feedback module.

[0020] The installation information acquisition module is connected to the installation permission error determination module, the installation permission error determination module is connected to the installation process quality detection module, the installation process quality detection module is connected to the performance quality testing module, and the performance quality testing module is connected to the construction quality result feedback module.

[0021] The installation information acquisition module is used to list the electrical equipment of the power project, including the laying equipment and the buried equipment, and obtain the material characteristics and equipment application characteristics of each electrical equipment. Each electrical equipment is numbered .

[0022] The laying equipment is the electrical equipment connected to the line surface, such as transformers, circuit breakers, etc.

[0023] The buried equipment is electrical equipment that requires anchor bolts or pad irons to be buried, such as buried cables, grounding devices, etc.

[0024] The material properties include insulation indicators, conductivity indicators, plastic strength, wear resistance indicators, corrosion resistance indicators, etc.

[0025] The equipment application characteristics include power factor, current, voltage, etc.

[0026] The installation permissible error determination module is used to detect the installation site conditions of each electrical device and determine the installation accuracy tolerance of each electrical device.

[0027] In a preferred embodiment, the installation site conditions of each electrical device include the installation site conditions of each laying device and the installation site conditions of each buried device.

[0028] The installation site conditions of each paving equipment include extreme differences in temperature and humidity, wind speed intensity, and sunlight intensity.

[0029] The installation site conditions of each buried equipment include soil bearing capacity and corrosive strength.

[0030] In a further preferred embodiment, the process of determining the installation accuracy tolerance of each electrical device is as follows: obtaining a preset correlation chart between the material properties of each electrical device and the site conditions, and extracting the tolerance indicators of each material property of each electrical device corresponding to each condition. For example, the wear resistance of transformers corresponds to the sun exposure resistance and wind speed resistance, and the insulation of buried cables corresponds to the corrosion resistance. A number indicating the material properties, , The number indicating the conditional tolerance indication, .

[0031] Determine the installation accuracy tolerance of each electrical equipment , where Indicates The first The material properties correspond to The preset benchmark reference value of each condition tolerance indication, Quantities that represent material properties, Represents the product sign.

[0032] The present invention identifies the correlation between the material properties of each laying equipment and each buried equipment and the condition tolerance indicators, and determines the installation accuracy tolerance of each electrical equipment accordingly, which can provide clear standards and basis for quality inspection, thereby ensuring that different electrical equipment can fully adapt to various environmental conditions during the installation process.

[0033] The installation process quality detection module is used to detect the connection data of each electrical device and analyze the installation accuracy measurement coefficient of each electrical device.

[0034] In a preferred embodiment, the connection data of each electrical device includes contact variables corresponding to each electrical device with a welding installation method and a hinge installation method, and each contact variable includes connection tightness, geometric accuracy and electrical connection quality.

[0035] The articulated connection method mainly realizes the connection between components or structural systems through hinges, pins, friction, etc. The articulated connection method allows relative movement between fixed ends, but limits certain types of displacement or rotation.

[0036] The contact variables corresponding to the electrical equipment are specifically: the connection tightness determined by the corresponding hinge type and bolt tightening torque of the electrical equipment in the articulated manner, the geometric accuracy determined by the corresponding design angle and design displacement of the electrical equipment in the articulated manner, and the electrical connection quality determined by the corresponding contact resistance and electrical strength of the electrical equipment in the articulated manner.

[0037] The hinge types include cable fixed hinges, movable hinges and spring hinges.

[0038] The connection tightness determined by the corresponding hinge type of each electrical device in the articulated manner and the bolt tightening torque is specifically determined by: matching the corresponding hinge type of each electrical device in the articulated manner with the preset corresponding load index of each hinge type to obtain the corresponding load index of each electrical device in the articulated manner , the torque sensor detects the corresponding bolt tightening torque of each electrical device in the articulated mode , and then substitute the corresponding load index and bolt tightening torque of each articulated electrical equipment into the formula Get the corresponding connection tightness of each electrical equipment in the articulated mode, where Indicates the preset load index and bolt tightening torque corresponding to the reference index, The corresponding numbers of each electrical equipment indicating the articulation mode, .

[0039] The design angle refers to the maximum rotation angle allowed at the hinge point of the electrical equipment. The size of the design angle directly affects the operating performance and safety of the electrical equipment. If the design angle is too small, the equipment may not rotate smoothly when subjected to external forces, thereby increasing the wear and failure rate of the equipment. If the design angle is too large, the stability and safety of the equipment may be reduced, increasing the risk of the equipment under extreme working conditions.

[0040] The design displacement refers to the maximum relative displacement allowed by the electrical equipment at the hinge point. The size of the design displacement should be able to meet the needs of the equipment under normal operation and extreme working conditions. If the design displacement is too small, it may cause excessive stress and deformation of the equipment when subjected to external forces, thereby increasing the risk of damage to the equipment. On the contrary, if the design displacement is too large, it may reduce the accuracy and performance of the equipment, and even affect the normal operation of the equipment.

[0041] The corresponding design rotation angle and design displacement of each electrical device in the articulated manner are determined according to factors such as the structure, function, use environment and safety requirements of the equipment. By substituting the formula Get the corresponding geometric accuracy of each electrical equipment in the articulated mode, where They are respectively the first The corresponding design angle and design displacement of each electrical equipment, They are the corresponding reference values ​​of the preset design angle and design displacement respectively.

[0042] The contact resistance and the dielectric strength are obtained by testing an insulation resistance tester and a withstand voltage tester.

[0043] The specific formula for obtaining the electrical connection quality determined by the corresponding contact resistance and dielectric strength of each electrical device in the articulated manner is the same as the formula for substituting the corresponding load index and bolt tightening torque of each electrical device in the articulated manner into the formula.

[0044] The connection tightness determined by the corresponding welding thickness and welding area of ​​each electrical equipment by welding method, the geometric accuracy determined by the corresponding weld defect rate of each electrical equipment by welding method, and the electrical connection quality determined by the corresponding insulation resistance and withstand voltage strength of each electrical equipment by welding method.

[0045] The welding thickness and welding area are obtained by radiometric measurement based on preset image texture feature recognition and detection of the weld.

[0046] The insulation resistance and the withstand voltage strength are respectively obtained by testing with an insulation resistance tester and a withstand voltage tester.

[0047] The specific formulas for obtaining the connection tightness determined by the corresponding welding thickness and welding area of ​​each electrical equipment of the welding method, and the electrical connection quality determined by the corresponding insulation resistance and withstand voltage strength of each electrical equipment of the welding method are the same as the formulas for substituting the corresponding load indicators and bolt tightening torques of each electrical equipment of the hinged method.

[0048] The method for obtaining the weld defect rate is as follows: obtaining the texture contours of each defect feature preset in the weld contour, identifying the texture area of ​​each defect feature of the weld at the corresponding welding position of the electrical equipment through image recognition technology, and then comparing it with the preset reference texture area corresponding to the corresponding defect feature, taking the sum of their ratios, and recording it as the weld defect rate, where each defect feature is such as cracks, slag inclusions, and lack of fusion.

[0049] The corresponding weld defect rate of each electrical device using the welding method is its geometric accuracy.

[0050] In a further preferred embodiment, the analysis of the installation accuracy measurement coefficient of each electrical device includes: comparing each contact variable corresponding to each electrical device with a preset contact variable reference value corresponding to the corresponding electrical device, obtaining a comparison ratio of each contact variable of each electrical device, taking the average value thereof as the installation data index of each electrical device .

[0051] Compare the installation site conditions of each electrical equipment with the preset benchmark reference values ​​of the corresponding site conditions to obtain the measurement ratio of the installation site conditions of each electrical equipment, which is recorded as the environmental erosion intensity of each electrical equipment. .

[0052] Check the spatial layout and protection measures of each electrical equipment to determine the layout compliance of each electrical equipment , .

[0053] The spatial layout includes the spatial maintenance distance index and electrical safety distance index of the paving equipment, the safety distance and burial depth of the buried equipment.

[0054] Analyze the installation accuracy measurement coefficient of each electrical equipment , ,in They respectively represent the proportion of preset impacts corresponding to installation data, environmental erosion, and layout compliance.

[0055] In a further preferred embodiment, determining the layout compliance of each electrical device includes: detecting the spatial maintenance distance index of each laying device through on-site survey. And electrical safety distance indicators , and detect the protection measures of the corresponding installation positions of each paving equipment, match them with the preset corrosion resistance of each protection measure, and obtain the corrosion resistance of each paving equipment , and then determine the layout compliance of each paving equipment , Indicates the number of the paving equipment. , e is a natural constant.

[0056] The method for obtaining the space maintenance distance index is: measuring the net distance between the equipment and the adjacent equipment, and the net distance between the equipment and the wall, obtaining the difference between the net distance and the corresponding preset appropriate net distance, and then obtaining the inverse ratio between the two differences and the preset reference difference, taking the average of the two inverse ratios, and recording it as the space maintenance distance index.

[0057] The electrical safety distance index is obtained by measuring the shortest distance between two adjacent conductors or one conductor and the adjacent motor housing surface measured along the air, and the shortest distance between two adjacent conductors or one conductor and the adjacent motor housing surface measured along the insulating surface, and obtaining the difference between the shortest distance and the corresponding preset shortest distance, and then obtaining the inverse ratio between the two differences and the preset reference difference, taking the average of the two inverse ratios, and recording it as the electrical safety distance index.

[0058] The protective measures include waterproofing measures and anti-corrosion measures.

[0059] At the same time, detect the safe distance of each buried equipment and burial depth , and detect the protection measures of the corresponding installation positions of each buried equipment. According to the corrosion resistance acquisition method of each paving equipment, the corrosion resistance of each buried equipment is obtained in the same way. , and then determine the layout compliance of each buried equipment , where Indicates The preset safe distance of each buried equipment is suitable. Indicates The preset suitable burial depth of each buried equipment is Indicates the preset deviation allowable value corresponding to the safety distance. Indicates the preset deviation allowable value corresponding to the buried depth. Indicates the number of the buried equipment. , , The number of electrical equipment.

[0060] The safety distance of the buried equipment refers to the distance between the electrical equipment and the buried soil, and the buried depth refers to the distance between the electrical equipment and the land surface.

[0061] The present invention monitors the contact variables corresponding to each electrical equipment installed in a welding manner and a hinged manner, so as to timely discover problems existing in the installation process of electrical equipment with different installation methods, and analyzes the installation data indicators of each electrical equipment accordingly, so as to achieve comprehensive control and management of the construction quality and improve the comprehensive controllability of the construction quality.

[0062] The performance quality test module is used to test each electrical device and analyze the stability coefficient of each electrical device during the test run. And the compliance coefficient of each electrical equipment test run .

[0063] In a preferred embodiment, the analysis of the stability coefficient of the trial operation of each electrical device includes: detecting the corresponding voltage fluctuation coefficient of each electrical device during the trial operation phase under the conditions of the installation site. ,pass The random function generates random transformation factors of environmental erosion intensity within the specified transformation range. , and then evaluate the voltage fluctuation coefficient of each electrical equipment under the random change of environmental erosion intensity , and then record its inverse value as the stability coefficient of the trial operation of each electrical equipment .

[0064] The method for obtaining the corresponding voltage fluctuation coefficient of each electrical equipment during the trial operation stage under the installation site conditions is: monitor the voltage value of each electrical equipment at each layout time point during the trial operation stage through a voltage tester, compare them with each other, take the average voltage change value of each electrical equipment in all adjacent layout time points during the trial operation stage, and then compare it with the preset reference change value, and take the ratio as the corresponding voltage fluctuation coefficient of each electrical equipment during the trial operation stage under the installation site conditions.

[0065] In a further preferred embodiment, the compliance coefficient analysis method of the test run of each electrical equipment is: extract the load conditions of the test run phase of the power project, match them with the preset load conditions corresponding to each pressure resistance index, and obtain the corresponding pressure resistance index of the load conditions of the test run phase of the power project. According to the method of obtaining the corresponding voltage fluctuation coefficient of each electrical equipment during the trial operation phase under the installation site conditions, the voltage fluctuation coefficient of each electrical equipment under the load conditions during the trial operation phase is obtained in the same way. , and then Denote as the compliance coefficient of each electrical equipment test run, where Indicates The preset voltage fluctuation coefficient threshold of an electrical device under load conditions.

[0066] The load conditions include power factor, load voltage, etc.

[0067] The present invention detects the corresponding voltage fluctuation coefficient of each electrical device during the trial operation phase under the installation site conditions, and then uses a random function to generate a random transformation factor of the environmental erosion intensity within a specified transformation range, simulating a variety of erosion intensity conditions that are closer to the actual operating environment, thereby more accurately evaluating the voltage stability of the electrical equipment under different environmental conditions and improving the accuracy and reliability of the evaluation. At the same time, by identifying the load conditions during the trial operation phase of the power project, various working conditions in actual operation can be simulated, thereby analyzing the compliance coefficient of the trial operation of each electrical equipment, and timely discovering possible problems of the equipment under specific load conditions, ensuring that the system can operate stably after formal commissioning.

[0068] The construction quality result feedback module is used to construct a construction quality discriminant vector of the power project, and then identify whether the construction quality of the power project meets the standards.

[0069] In a preferred embodiment, the construction quality discriminant vector of the power project is constructed, including: listing the installation accuracy measurement coefficient of each electrical equipment, the stability coefficient of the trial operation of each electrical equipment and compliance coefficient .

[0070] The installation accuracy measurement coefficient of each electrical equipment is multiplied by the installation accuracy tolerance of each electrical equipment to obtain the installation accuracy qualification coefficient of each electrical equipment. , specifically, ,in is 180 degrees.

[0071] Constructing the Construction Quality Discriminant Vector of Power Engineering .

[0072] In a further preferred embodiment, the identification of whether the construction quality of the power project meets the standard includes: using a logistic regression model Determine whether the construction quality of the power project meets the standards. Indicates whether the power project is qualified, which is a binary variable. Indicates qualified, Indicates failure, is the discriminant variable The dependent variable The probability of taking the value 1, is the set fitting model parameter and the discriminant vector The dot product of are the parameters of the fitted model, represents the number of the fitting model parameters, .

[0073] Specifically, .

[0074] like , then it is judged that the construction quality of the power project meets the standards.

[0075] like , then it is judged that the construction quality of the power project does not meet the standards.

[0076] The present invention combines the installation data indicators, environmental erosion intensity and layout compliance of each electrical equipment to comprehensively determine the installation accuracy measurement coefficient of each electrical equipment, and then uses it and the stability coefficient and compliance coefficient of the trial operation of each electrical equipment as a discriminant vector. Through the logistic regression model, it is judged whether the construction quality of the power project meets the standard, and the installation accuracy, environmental adaptability and layout rationality of the electrical equipment are quantified. Each link in the construction process can be evaluated more accurately, reducing the subjectivity and uncertainty of human judgment, thereby improving the accuracy of construction quality evaluation.

[0077] The above contents are merely examples and explanations of the concept of the present invention. Those skilled in the art may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the concept of the invention or exceed the scope defined by the present invention, they shall all fall within the protection scope of the present invention.

Claims

1. A digital management platform for power engineering construction quality, characterized in that: include: The installation information acquisition module is used to list the electrical equipment of the power project, including the laying equipment and the buried equipment, and obtain the material characteristics and equipment application characteristics of each electrical equipment. Each electrical equipment is numbered ; An installation allowable error determination module is used to detect the installation site conditions of each electrical device and determine the installation accuracy tolerance of each electrical device; Installation process quality detection module, used to detect the connection data of each electrical equipment and analyze the installation accuracy measurement coefficient of each electrical equipment; Performance quality test module, used to test each electrical equipment and analyze the stability coefficient of each electrical equipment test run And the compliance coefficient of each electrical equipment test run ; The construction quality result feedback module is used to construct the construction quality discriminant vector of the power project, and then identify whether the construction quality of the power project meets the standards; The analysis of the installation accuracy measurement coefficient of each electrical device includes: comparing each contact variable corresponding to each electrical device with the preset contact variable reference value corresponding to the corresponding electrical device, obtaining the comparison ratio of each contact variable of each electrical device, taking the average value as the installation data index of each electrical device ; Compare the installation site conditions of each electrical equipment with the preset benchmark reference values ​​of the corresponding site conditions to obtain the measurement ratio of the installation site conditions of each electrical equipment, which is recorded as the environmental erosion intensity of each electrical equipment. ; Check the spatial layout and protection measures of each electrical equipment to determine the layout compliance of each electrical equipment ; Analyze the installation accuracy measurement coefficient of each electrical equipment , ,in They represent the proportion of preset impacts corresponding to installation data, environmental erosion, and layout compliance respectively; The analysis of the stability coefficient of the trial operation of each electrical equipment includes: detecting the corresponding voltage fluctuation coefficient of each electrical equipment during the trial operation under the conditions of the installation site. , using random functions to generate random transformation factors of environmental erosion intensity within the specified transformation range , and then evaluate the voltage fluctuation coefficient of each electrical equipment under the random change of environmental erosion intensity , and then record its inverse value as the stability coefficient of the trial operation of each electrical equipment ; The method for analyzing the compliance coefficient of the trial operation of each electrical equipment is as follows: extracting the load conditions of the trial operation stage of the power project, matching them with the preset load conditions corresponding to each pressure resistance index, and obtaining the corresponding pressure resistance index of the load conditions of the trial operation stage of the power project. According to the method of obtaining the corresponding voltage fluctuation coefficient of each electrical equipment during the trial operation phase under the installation site conditions, the voltage fluctuation coefficient of each electrical equipment under the load conditions during the trial operation phase is obtained in the same way. , and then Denote as the compliance coefficient of each electrical equipment test run, where Indicates The preset voltage fluctuation coefficient threshold of an electrical device under load conditions; The construction quality discriminant vector of the power project is constructed, including: listing the installation accuracy measurement coefficient of each electrical equipment, the stability coefficient of the trial operation of each electrical equipment and compliance coefficient ; The installation accuracy measurement coefficient of each electrical equipment is multiplied by the installation accuracy tolerance of each electrical equipment to obtain the installation accuracy qualification coefficient of each electrical equipment. ; Constructing the Construction Quality Discriminant Vector of Power Engineering ; The identification of whether the construction quality of the power project meets the standards includes: using the logistic regression model Determine whether the construction quality of the power project meets the standards. Indicates whether the power engineering is qualified. is the discriminant variable The dependent variable The probability of taking the value 1, is the set fitting model parameter and the discriminant vector The dot product of represents the number of the fitting model parameters, ; like , then it is judged that the construction quality of the power project meets the standards; like , then it is judged that the construction quality of the power project does not meet the standards.

2. A digital management platform for power engineering construction quality according to claim 1, characterized in that: The installation site conditions of each electrical equipment include the installation site conditions of each laying equipment and the installation site conditions of each buried equipment; The installation site conditions of each paving equipment include extreme temperature and humidity differences, wind speed intensity, and sunlight intensity; The installation site conditions of each buried equipment include soil bearing capacity and corrosive strength.

3. A digital management platform for power engineering construction quality according to claim 1, characterized in that: The process of determining the installation accuracy tolerance of each electrical device is as follows: obtaining a preset correlation chart between the material characteristics of each electrical device and the site conditions, and extracting the tolerance indicators of each material characteristic of each electrical device corresponding to each condition. , A number indicating the material properties, , The number indicating the conditional tolerance indication, ; Determine the installation accuracy tolerance of each electrical equipment , where Indicates The first The material properties correspond to The preset benchmark reference value of each condition tolerance indication, Quantities that represent material properties, Represents the product sign.

4. A digital management platform for power engineering construction quality according to claim 1, characterized in that: The connection data of each electrical device includes contact variables corresponding to each electrical device whose installation method is welding and hinged, and each contact variable includes connection tightness, geometric accuracy and electrical connection quality; The contact variables corresponding to the electrical equipment are specifically: the connection tightness determined by the hinge type and bolt tightening torque of the electrical equipment in the articulated mode, the geometric accuracy determined by the design angle and design displacement of the electrical equipment in the articulated mode, and the electrical connection quality determined by the contact resistance and dielectric strength of the electrical equipment in the articulated mode; The connection tightness determined by the corresponding welding thickness and welding area of ​​each electrical equipment by welding method, the geometric accuracy determined by the corresponding weld defect rate of each electrical equipment by welding method, and the electrical connection quality determined by the corresponding insulation resistance and withstand voltage strength of each electrical equipment by welding method.

5. A digital management platform for power engineering construction quality according to claim 1, characterized in that: Determining the layout compliance of each electrical equipment includes: detecting the spatial maintenance distance index of each laying equipment And electrical safety distance indicators , and detect the protection measures of the corresponding installation positions of each paving equipment, match them with the preset corrosion resistance of each protection measure, and obtain the corrosion resistance of each paving equipment , and then determine the layout compliance of each paving equipment , Indicates the number of the paving equipment. , e is a natural constant; At the same time, detect the safe distance of each buried equipment and burial depth , and detect the protection measures of the corresponding installation positions of each buried equipment. According to the corrosion resistance acquisition method of each paving equipment, the corrosion resistance of each buried equipment is obtained in the same way. , and then determine the layout compliance of each buried equipment , where Indicates The preset safe distance of each buried equipment is suitable. Indicates The preset suitable burial depth of each buried equipment is Indicates the preset deviation allowable value corresponding to the safety distance. Indicates the preset deviation allowable value corresponding to the buried depth. Indicates the number of the buried equipment. .

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