Power engineering construction management method and system based on digital management platform

Abstract

This invention discloses a method and system for power engineering construction management based on a digital management platform, belonging to the field of intelligent management technology. The method includes: visually modeling a power construction project using the digital management platform and outputting a visual 3D model; acquiring real-time construction progress and identifying equipment status to obtain N equipment operation groups; identifying a first equipment operation group through safety risk and hazard identification; establishing synchronization identifiers for each device in the first equipment operation group; and inputting the equipment synchronization identifier results into a synchronization control module for synchronous management of each device containing the synchronization identifier. This invention solves the technical problem in the prior art where safety hazards arise due to synchronization errors of various construction equipment, affecting construction safety. It achieves the technical effect of identifying high-risk equipment based on a digital management platform and eliminating safety hazards through synchronous control management.

Description

Technical Field

[0001] The present invention relates to the field of intelligent management technology, and in particular to a power engineering construction management method and system based on a digital management platform. Background Art

[0002] The digital management platform is a comprehensive management platform that uses information technology to integrate various enterprise resources, business processes and information systems to achieve information sharing, data-driven decision-making and value maximization.

[0003] Power engineering construction machinery and equipment are the main tools for power construction and an important part of power engineering. Safety management of power engineering construction machinery and equipment is an important means to ensure construction quality and construction safety. However, due to the complex construction environment and process of power engineering, it is often necessary to coordinate multiple devices to complete the same operation goal. Once there is a lack of synchronization, it is easy to cause safety hazards. Therefore, there are also safety issues caused by equipment synchronization errors. Summary of the invention

[0004] The present application provides a method and system for power engineering construction management based on a digital management platform, which is used to solve the technical problem in the prior art that safety hazards are caused by synchronization errors of various construction equipment, affecting construction safety.

[0005] The first aspect of the present application provides a method for power engineering construction management based on a digital management platform, the method comprising: visually modeling the power construction project based on the digital management platform, and outputting a visual three-dimensional model, wherein the visual three-dimensional model is connected to a synchronization control module, and the synchronization control module is connected to a corresponding construction equipment control terminal; obtaining a real-time construction process, identifying the equipment status of the real-time construction process, classifying a set of equipment in an operating state, and obtaining N equipment operation groups, wherein each equipment operation group is used to complete the same operation goal; obtaining a first equipment operation group by identifying safety risks and hidden dangers of the N equipment operation groups, wherein the first equipment operation group is the equipment operation group with the highest safety hazard among the N equipment operation groups; establishing a synchronization identification with each device in the first equipment operation group, and outputting a device synchronization identification result; inputting the device synchronization identification result into the synchronization control module, and performing synchronization management on each device containing the synchronization identification according to the synchronization control module.

[0006] The second aspect of the present application provides an electric power engineering construction management system based on a digital management platform, the system comprising: a visual modeling module, the visual modeling module is used to perform visual modeling of the electric power construction project based on the digital management platform, and output a visual three-dimensional model, wherein the visual three-dimensional model is connected to a synchronization control module, and the synchronization control module is connected to a corresponding construction equipment control terminal; N equipment operation group acquisition modules, the N equipment operation group acquisition modules are used to acquire real-time construction progress, and identify the equipment status of the real-time construction process, classify the equipment set in the operating state, and acquire N equipment operation groups, wherein each equipment operation group is used to complete The same operation target; a first device operation group acquisition module, the first device operation group acquisition module is used to obtain the first device operation group by identifying security risks and hidden dangers of the N device operation groups, wherein the first device operation group is the device operation group with the highest security risks among the N device operation groups; a device synchronization identification result output module, the device synchronization identification result output module is used to establish a synchronization identification with each device in the first device operation group, and output a device synchronization identification result; a device synchronization management module, the device synchronization management module is used to input the device synchronization identification result into the synchronization control module, and synchronize the management of each device containing the synchronization identification according to the synchronization control module.

[0007] One or more technical solutions provided in this application have at least the following technical effects or advantages:

[0008] The present application provides a method for managing the construction of an electric power project based on a digital management platform, which relates to the field of intelligent management technology. The digital management platform is used to perform visual modeling of the electric power construction project to obtain real-time construction progress, and N equipment operation groups are obtained through equipment status identification. The first equipment operation group is obtained through safety risk hidden danger identification, and a synchronization identification is established with each device in the first equipment operation group. The equipment synchronization identification result is input into a synchronization control module, and each device containing the synchronization identification is synchronously managed. This solves the technical problem in the prior art that safety hazards are caused by synchronization coordination errors of various construction equipment, which affects construction safety, and realizes the technical effect of identifying high-risk equipment based on a digital management platform and eliminating safety hazards through synchronous control management. BRIEF DESCRIPTION OF THE DRAWINGS

[0009] In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the following briefly introduces the drawings required for use in the description of the embodiments. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0010] Figure 1 A flowchart of a method for managing electric power engineering construction based on a digital management platform provided in an embodiment of the present application;

[0011] Figure 2 A schematic diagram of a process for obtaining a first equipment operation group in a power engineering construction management method based on a digital management platform provided in an embodiment of the present application;

[0012] Figure 3 A schematic diagram of a process of synchronously managing various devices including synchronization identifiers according to the synchronization control module in a power engineering construction management method based on a digital management platform provided in an embodiment of the present application;

[0013] Figure 4 A schematic diagram of the structure of a power engineering construction management system based on a digital management platform provided in an embodiment of the present application.

[0014] Description of the reference numerals: visual modeling module 11 , N device operation group acquisition module 12 , first device operation group acquisition module 13 , device synchronization identification result output module 14 , device synchronization management module 15 . DETAILED DESCRIPTION

[0015] The present application provides a method for managing the construction of electric power projects based on a digital management platform, which is used to solve the technical problem in the prior art that safety hazards are caused by synchronization errors of various construction equipment, affecting construction safety.

[0016] The following will be combined with the drawings in the embodiments of the present application to clearly and completely describe the technical solutions in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of this application.

[0017] It should be noted that the terms "first", "second", etc. in the specification and claims of the present application and the above-mentioned drawings are used to distinguish similar objects, and are not necessarily used to describe a specific order or sequence. It should be understood that the data used in this way can be interchangeable where appropriate, so that the embodiments of the present application described herein can be implemented in an order other than those illustrated or described herein. In addition, the terms "including" and "having" and any variations thereof are intended to cover non-exclusive inclusions, for example, a process, method, system, product, or server that includes a series of steps or units is not necessarily limited to those steps or units that are clearly listed, but may include other steps or modules that are not clearly listed or inherent to these processes, methods, products, or devices.

[0018] Embodiment 1

[0019] like Figure 1 As shown, the present application provides a power engineering construction management method based on a digital management platform, the method comprising:

[0020] P10: Perform visual modeling of the power construction project based on the digital management platform and output a visual three-dimensional model, wherein the visual three-dimensional model is connected to a synchronous control module, and the synchronous control module is connected to a corresponding construction equipment control terminal;

[0021] It should be understood that the target power construction project can be visualized through the modeling function of the digital management platform, for example, through BIM digital modeling, a virtual visualization three-dimensional model of the construction schedule can be constructed. The visualization three-dimensional model carries information data of the target power construction project, including building geometry information, rule information, etc., and can execute the construction and operation management of the project throughout its life cycle. In addition, the visualization three-dimensional model is connected to the synchronization control module, and the synchronization control module is connected to the corresponding construction equipment control terminal. Through the construction simulation results of the visualization three-dimensional model, the synchronization control module can be linked to perform synchronization control of the construction equipment control terminal, thereby achieving the purpose of controlling each construction equipment.

[0022] P20: Acquire the real-time construction progress, identify the equipment status of the real-time construction process, classify the equipment set in the working state, and obtain N equipment operation groups, wherein each equipment operation group is used to complete the same operation target;

[0023] Specifically, according to the construction process flow of the target power construction project, the real-time construction progress is obtained, that is, the current construction stage, such as the pipeline laying stage, and the equipment status of the real-time construction process is identified, that is, the working status of each construction equipment in the current construction stage is identified, and then the equipment set in the operating state is extracted. Since the completion of the same operation task often requires the cooperation of multiple devices, the equipment set in the operating state is classified according to multiple collaborative operation tasks, and the equipment that collaborates to complete the same operation task is divided into the same operation group, and N equipment operation groups are obtained by analogy. For example, when dismantling and expanding the track, the cooperation of several devices such as winches, switches, material conveyor carts, and track removal booms is required. These devices are an equipment operation group, and the devices in the same equipment operation group need to cooperate synchronously. Once there is a lack of synchronization, such as a winch failure, the material conveyor cart will slide down, creating a safety hazard.

[0024] Furthermore, step P20 of the embodiment of the present application further includes:

[0025] P21: Identify the set of devices in the working state, and obtain the information exchange degree, mechanism integrity and environment identity, wherein the information exchange degree identifies the information exchange degree between devices, the mechanism integrity identifies the completeness of the task mechanism setting when the devices interact, and the environment identity identifies the identity of the communication network environment in which the devices are located;

[0026] P22: Generate a device coordination index according to the information exchange degree, the mechanism completeness and the environment identity;

[0027] P23: Classify the device set according to the device coordination index to obtain the N device operation groups.

[0028] Among them, all devices in the device set in the working state are identified respectively to obtain the information exchange degree, mechanism integrity and environment identity, wherein the information exchange degree refers to the information exchange degree between each device, by identifying the information transmission records between each device within a period of time, extracting the number and frequency of information transmission between each device, and then calculating the information exchange degree between each device. The mechanism integrity refers to the completeness of the task mechanism setting when the device interacts, that is, calculating the integrity of each task mechanism under each random device combination to determine whether each device in the group belongs to the same task mechanism. The environmental identity refers to the identity of the communication network environment in which each device is located, that is, identifying whether each device is in the same network. If it is in, it means that the network stability is consistent and each device is in the same operation task. If it is not in, it means that the network stability is inconsistent and each device is in different operation tasks.

[0029] Furthermore, referring to the device collaboration index, the device set is classified by comparing the information exchange degree, the mechanism integrity and the environment identity, and devices with high information exchange degree, high mechanism integrity and consistent network stability are divided into a device operation group, thereby obtaining the N device operation groups.

[0030] P30: Obtain a first device operation group by identifying security risks for the N device operation groups, wherein the first device operation group is the device operation group with the highest security risk among the N device operation groups;

[0031] Further, such as Figure 2 As shown, step P30 of the embodiment of the present application also includes:

[0032] P31: Identify safety risks for the N equipment operation groups, including equipment historical failure rate, personnel participation rate, and operating environment danger;

[0033] P32: outputting N safety risk indicators corresponding to the N equipment operation groups according to the equipment historical failure rate, personnel participation rate and operating environment danger;

[0034] P33: Analyze the N security risk indicators to obtain the first device operation group.

[0035] Exemplarily, safety risk identification is performed on each of the N equipment operation groups, including identification of equipment historical failure rate, personnel participation rate, and operating environment hazard. The equipment historical failure rate can be obtained by querying the equipment maintenance record. The higher the equipment historical failure rate, the higher the safety operation risk of the equipment. The personnel participation rate refers to the number of personnel equipped in each equipment operation group and the proportion of manual participation in equipment operation. The higher the personnel participation rate, the greater the corresponding personnel hazard and the higher the safety risk. The operating environment hazard refers to the degree of hazard of the operating environment of each equipment operation group, such as high temperature environment, high altitude environment, etc.

[0036] Furthermore, according to the equipment historical failure rate, personnel participation rate and operating environment danger of the current power construction project, the safety risk of the current power construction project is matched and identified with reference to the equipment historical failure rate, personnel participation rate and operating environment danger of the sample safety risk identification case, and N safety risk indicators corresponding to the N equipment operation groups are obtained. The N safety risk indicators are arranged in order of size, and the equipment operation group corresponding to the safety risk indicator with the largest safety risk is selected as the first equipment operation group, so as to facilitate the subsequent equipment regulation and control to minimize safety hazards.

[0037] Furthermore, step P32 of the embodiment of the present application also includes:

[0038] P32-1: By fusing the equipment historical failure rate samples, personnel participation rate samples and operating environment hazard samples, equipment-personnel fusion risk samples, personnel-environment fusion risk samples and equipment-environment fusion risk samples are obtained;

[0039] P32-2: Pre-training the network layer with the equipment-personnel fusion risk samples, the personnel-environment fusion risk samples and the equipment-environment fusion risk samples to generate a fusion risk identification network layer;

[0040] P32-3: Based on the fused risk identification network layer, output N security risk indicators corresponding to the N device operation groups.

[0041] Specifically, based on the N equipment operation groups, multiple groups of equipment historical failure rate samples, personnel participation rate samples and operating environment hazard samples are obtained, and the equipment historical failure rate samples, personnel participation rate samples and operating environment hazard samples are fused, that is, the risk of the two risk factors is weighted and calculated to obtain equipment-personnel fusion risk samples, personnel-environment fusion risk samples and equipment-environment fusion risk samples, that is, the safety risks of each equipment operation group under the influence of the two risk factors.

[0042] Furthermore, the equipment-personnel fusion risk samples, personnel-environment fusion risk samples and equipment-environment fusion risk samples are used as training data and combined with any neural network to perform network layer training until the output of the network layer converges and meets the preset accuracy requirements, thereby obtaining a fusion risk identification network layer. Through the fusion risk identification network layer, combined with the historical failure rate of the equipment, the personnel participation rate and the dangerousness of the operating environment of the current power construction project, safety risk identification is performed to obtain N safety risk indicators corresponding to the N equipment operation groups.

[0043] Furthermore, the embodiment of the present application also includes P33a, and step P33a also includes:

[0044] P33a-1: Acquire multiple device operation groups with risk indicators greater than or equal to a preset risk indicator according to the N security risk indicators;

[0045] P33a-2: establishing N synchronization control submodules according to the multiple device operation groups, constructing the synchronization control module with the N synchronization control submodules, and having the synchronization control module perform partition synchronization control on the N synchronization control submodules respectively;

[0046] P33a-3: wherein, the computing power upper limit indicator of the control software resource environment of the synchronous control module is obtained, a first constraint condition is generated according to the computing power upper limit indicator, and the number of the N synchronous control sub-modules is constrained by the first constraint condition.

[0047] Optionally, in addition to selecting the device operation group with the greatest safety risk as the control variable, the control variable can also be selected based on a preset safety risk threshold, and multiple device operation groups with a risk index greater than or equal to the preset risk index are selected from the N safety risk indexes, and the preset risk index is the safety risk threshold, that is, the maximum safety risk. Further, N synchronous control submodules are established according to the multiple device operation groups to control each device operation group individually, and the synchronous control module is constructed with the N synchronous control submodules, and the synchronous control module performs partition synchronous control on the N synchronous control submodules respectively, so as to achieve targeted adjustment of the equipment of each device operation group.

[0048] In addition, it is necessary to generate a first constraint condition based on the computing power upper limit indicator of the control software resource environment of the synchronous control module, that is, to calculate the upper limit of the control quantity based on the computing power upper limit indicator and the computing power requirement of a single control sub-module, so as to constrain the number of synchronous control sub-modules to ensure that the computing power of the synchronous control module does not exceed the computing power upper limit.

[0049] P40: Establishing synchronization identification with each device in the first device operation group, and outputting device synchronization identification results;

[0050] It should be understood that according to the construction operation tasks performed by the first equipment operation group, the workflow of each device in the first equipment operation group is obtained, thereby determining the operation track, start time, end time, connection time, data transmission direction, etc. of each device, and then through process combing, determine the synchronous execution time and tasks of each device, for example, when a concrete mixing station outputs a mixture, it is necessary to synchronously start a concrete delivery pump for delivery. A synchronization mark is established between each device at the same operating time, and the start time, operating time, closing time, and data transmission node of each device are marked to obtain the equipment synchronization mark result.

[0051] P50: Input the device synchronization identification result into the synchronization control module, and perform synchronization management on each device containing the synchronization identification according to the synchronization control module.

[0052] Further, such as Figure 3 As shown, step P50 of the embodiment of the present application also includes:

[0053] P51: Build a synchronization control module, wherein the synchronization control module includes a time synchronization submodule and a data synchronization submodule, the time synchronization submodule is used to perform synchronization control on the control time between various devices, and the data synchronization submodule is used to perform synchronization control on the data update between various devices;

[0054] P52: Outputting a time synchronization detection result and a data synchronization detection result according to the time synchronization submodule and the data synchronization submodule respectively, wherein the time synchronization detection result includes a delay of the device execution time, and the data synchronization detection result includes a delay of the device data update;

[0055] P53: Generate reminder information according to the time synchronization detection result and the data synchronization detection result, and remind the synchronization control module to perform synchronization management on each device containing the synchronization identifier according to the reminder information.

[0056] In a possible embodiment of the present application, a synchronization control module is constructed, wherein the synchronization control module includes a time synchronization submodule and a data synchronization submodule. The time synchronization submodule is used to perform synchronization control on the control time between various devices to adjust the synchronization coordination time of the devices in each device operation group and make good time connection. The data synchronization submodule is used to perform synchronization control on the data update between various devices to make good data instruction connection between various devices.

[0057] Furthermore, the device synchronization identification result is input into the synchronization control module, and time synchronization detection and data synchronization detection are performed respectively through the time synchronization submodule and the data synchronization submodule, and the time synchronization detection result and the data synchronization detection result are output. The time synchronization detection result includes the delay of the execution time of each device, and the data synchronization detection result includes the delay of the update speed of the data of each device.

[0058] Furthermore, based on the time synchronization detection result and the data synchronization detection result, a reminder message is generated, that is, a device asynchrony reminder is generated and sent to the synchronization control module. The synchronization control module adjusts the execution time and data update speed of each device according to the synchronization identifier, execution time delay, and data update delay, so that the execution time and data transmission process between each device are connected, so as to optimize the device synchronization execution process and avoid safety hazards caused by device asynchrony failures.

[0059] Furthermore, the embodiment of the present application further includes step P60, and step P60 further includes:

[0060] P61: Obtain a platform user set of the digital management platform;

[0061] P62: Analyze the functional attributes of each user in the platform user set to generate a model call degree, wherein the model call degree is the degree of sophistication of calling the data in the visualized three-dimensional model;

[0062] P63: Performing authority management on the calling of the visualized three-dimensional model by users in the digital management platform according to the calling degree of the model.

[0063] Specifically, the platform user data of the digital management platform is obtained to form a platform user set, the functional attributes of each user in the platform user set are analyzed, and the platform usage permissions are set according to the functional attributes to generate a model calling degree, that is, the calling permission of the three-dimensional visualization model in the platform. For example, the model calling degree is divided according to the decision-making layer, leadership layer, management layer, supervision layer, and execution layer. According to different user management levels, the corresponding model calling degree is allocated, or it is allocated according to the functions of the department to which it belongs, for example, a larger model calling permission is allocated to the management department of the digital platform, and then the calling permission of users in the digital management platform to the visualization three-dimensional model is managed through the model calling degree to ensure the security of engineering data.

[0064] In summary, the embodiments of the present application have at least the following technical effects:

[0065] The present application uses a digital management platform to perform visual modeling of power construction projects, obtain real-time construction progress, obtain N equipment operation groups through equipment status identification, and obtain the first equipment operation group through safety risk hazard identification. A synchronization identifier is established for each device in the first equipment operation group, and the equipment synchronization identification result is input into the synchronization control module to perform synchronization management on each device containing the synchronization identifier.

[0066] The technical effect of identifying high-risk equipment based on a digital management platform and eliminating safety hazards through synchronous control management has been achieved.

[0067] Embodiment 2

[0068] Based on the same inventive concept as the power engineering construction management method based on a digital management platform in the aforementioned embodiment, Figure 4 As shown, the present application provides a power engineering construction management system based on a digital management platform, and the system and method embodiments in the present application embodiments are based on the same inventive concept. The system includes:

[0069] A visual modeling module 11, which is used to perform visual modeling on the power construction project based on the digital management platform and output a visual three-dimensional model, wherein the visual three-dimensional model is connected to a synchronous control module, and the synchronous control module is connected to a corresponding construction equipment control terminal;

[0070] N equipment operation group acquisition modules 12, the N equipment operation group acquisition modules 12 are used to acquire the real-time construction process, identify the equipment status of the real-time construction process, classify the equipment set in the working state, and acquire N equipment operation groups, wherein each equipment operation group is used to complete the same operation target;

[0071] A first device operation group acquisition module 13, the first device operation group acquisition module 13 is used to acquire a first device operation group by identifying security risks and hidden dangers of the N device operation groups, wherein the first device operation group is the device operation group with the highest security risks among the N device operation groups;

[0072] A device synchronization identification result output module 14, the device synchronization identification result output module 14 is used to establish a synchronization identification with each device in the first device operation group, and output a device synchronization identification result;

[0073] The device synchronization management module 15 is used to input the device synchronization identification result into the synchronization control module, and perform synchronization management on each device containing the synchronization identification according to the synchronization control module.

[0074] Furthermore, the N device operation group acquisition module 12 is further configured to perform the following steps:

[0075] Identify a set of devices in operation to obtain information exchange degree, mechanism integrity and environment identity, wherein the information exchange degree identifies the information exchange degree between devices, the mechanism integrity identifies the integrity of task mechanism settings when devices interact, and the environment identity identifies the identity of the communication network environment in which the devices are located;

[0076] generating a device coordination index according to the information exchange degree, the mechanism completeness, and the environment identity;

[0077] The device set is classified according to the device coordination index to obtain the N device operation groups.

[0078] Furthermore, the first device operation group acquisition module 13 is further configured to perform the following steps:

[0079] By identifying safety risks for the N equipment operation groups, including equipment historical failure rates, personnel participation rates, and operating environment hazards;

[0080] Outputting N safety risk indicators corresponding to the N equipment operation groups according to the equipment historical failure rate, personnel participation rate and operating environment danger;

[0081] The N security risk indicators are analyzed to obtain the first device operation group.

[0082] Furthermore, the first device operation group acquisition module 13 is further configured to perform the following steps:

[0083] By fusing the equipment historical failure rate samples, personnel participation rate samples and operating environment hazard samples, equipment-personnel fusion risk samples, personnel-environment fusion risk samples and equipment-environment fusion risk samples are obtained;

[0084] Performing network layer pre-training with the equipment-personnel fusion risk samples, the personnel-environment fusion risk samples, and the equipment-environment fusion risk samples to generate a fusion risk identification network layer;

[0085] According to the fused risk identification network layer, N security risk indicators corresponding to the N device operation groups are output.

[0086] Furthermore, the device synchronization management module 15 is further configured to perform the following steps:

[0087] Build a synchronization control module, wherein the synchronization control module includes a time synchronization submodule and a data synchronization submodule, the time synchronization submodule is used to perform synchronization control on the control time between various devices, and the data synchronization submodule is used to perform synchronization control on the data update between various devices;

[0088] Outputting a time synchronization detection result and a data synchronization detection result according to the time synchronization submodule and the data synchronization submodule respectively, wherein the time synchronization detection result includes a delay degree of device execution time, and the data synchronization detection result includes a delay degree of device data update;

[0089] Reminder information is generated according to the time synchronization detection result and the data synchronization detection result, and the synchronization control module is reminded to perform synchronization management on each device containing a synchronization identifier according to the reminder information.

[0090] Furthermore, the system also includes:

[0091] A plurality of equipment operation group acquisition modules, wherein the plurality of equipment operation group acquisition modules are used to acquire a plurality of equipment operation groups having a risk index greater than or equal to a preset risk index according to the N security risk indexes;

[0092] A partition synchronization control module, wherein the partition synchronization control module is used to establish N synchronization control submodules according to the multiple device operation groups, and to construct the synchronization control module with the N synchronization control submodules, and the synchronization control module performs partition synchronization control on the N synchronization control submodules respectively;

[0093] A quantity constraint module, the quantity constraint module is used to obtain the computing power upper limit indicator of the control software resource environment of the synchronous control module, generate a first constraint condition based on the computing power upper limit indicator, and constrain the number of the N synchronous control sub-modules with the first constraint condition.

[0094] Furthermore, the system also includes:

[0095] A platform user set acquisition module, the platform user set acquisition module is used to acquire the platform user set of the digital management platform;

[0096] A model call degree generation module, the model call degree generation module is used to analyze the functional attributes of each user in the platform user set to generate a model call degree, wherein the model call degree is the degree of sophistication of calling the data in the visual three-dimensional model;

[0097] A user authority management module is used to manage the authority of users in the digital management platform to call the visualized three-dimensional model according to the model calling degree.

[0098] It should be noted that the above-mentioned sequence of the embodiments of the present application is only for description and does not represent the advantages and disadvantages of the embodiments. And the above-mentioned specific embodiments of this specification are described. Other embodiments are within the scope of the attached claims. In some cases, the actions or steps recorded in the claims can be performed in an order different from that in the embodiments and still achieve the desired results. In addition, the processes depicted in the drawings do not necessarily require the specific order or continuous order shown to achieve the desired results. In some embodiments, multitasking and parallel processing are also possible or may be advantageous.

[0099] The above description is only a preferred embodiment of the present application and is not intended to limit the present application. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present application should be included in the protection scope of the present application.

[0100] This specification and drawings are merely exemplary illustrations of the present application and are deemed to cover any and all modifications, variations, combinations or equivalents within the scope of the present application. Obviously, a person skilled in the art may make various modifications and variations to the present application without departing from the scope of the present application. Thus, if these modifications and variations of the present application fall within the scope of the present application and its equivalents, the present application intends to include these modifications and variations.

Claims

1. A power engineering construction management method based on a digital management platform, characterized in that: The method comprises: Perform visual modeling of the power construction project based on the digital management platform and output a visual three-dimensional model, wherein the visual three-dimensional model is connected to a synchronous control module, and the synchronous control module is connected to a corresponding construction equipment control terminal; Acquire the real-time construction progress, identify the equipment status of the real-time construction process, classify the equipment set in the working state, and obtain N equipment operation groups, wherein each equipment operation group is used to complete the same operation target; Acquire a first device operation group by identifying security risks and hidden dangers for the N device operation groups, wherein the first device operation group is the device operation group with the highest security risks among the N device operation groups; Establishing synchronization identification with each device in the first device operation group, and outputting device synchronization identification results; Inputting the device synchronization identification result into the synchronization control module, and performing synchronization management on each device containing the synchronization identification according to the synchronization control module; The device set in the operating state is classified to obtain N device operation groups, and the method further includes: Identify a set of devices in operation to obtain information exchange degree, mechanism integrity and environment identity, wherein the information exchange degree identifies the information exchange degree between devices, the mechanism integrity identifies the integrity of task mechanism settings when devices interact, and the environment identity identifies the identity of the communication network environment in which the devices are located; generating a device coordination index according to the information exchange degree, the mechanism completeness, and the environment identity; Classify the device set according to the device coordination index to obtain the N device operation groups; The information exchange degree refers to the information exchange degree between each device. By identifying the information transmission records between each device within a period of time, the number and frequency of information transmission between each device are extracted, and then the information exchange degree between each device is calculated; The mechanism completeness refers to the completeness of the task mechanism setting when the devices interact. By calculating the completeness of each task mechanism corresponding to each random device combination, it is determined whether each device in the group belongs to the same task mechanism; The environment identity refers to the identity of the communication network environment in which each device is located, that is, identifying whether each device is in the same network environment.

2. The method according to claim 1, characterized in that Synchronously managing each device including a synchronization identifier according to the synchronization control module, the method includes: Build a synchronization control module, wherein the synchronization control module includes a time synchronization submodule and a data synchronization submodule, the time synchronization submodule is used to perform synchronization control on the control time between various devices, and the data synchronization submodule is used to perform synchronization control on the data update between various devices; Outputting a time synchronization detection result and a data synchronization detection result according to the time synchronization submodule and the data synchronization submodule respectively, wherein the time synchronization detection result includes a delay degree of device execution time, and the data synchronization detection result includes a delay degree of device data update; Reminder information is generated according to the time synchronization detection result and the data synchronization detection result, and the synchronization control module is reminded to perform synchronization management on each device containing a synchronization identifier according to the reminder information.

3. The method according to claim 1, characterized in that By identifying security risks and hidden dangers for the N device operation groups, a first device operation group is obtained, the method comprising: By identifying safety risks for the N equipment operation groups, including equipment historical failure rates, personnel participation rates, and operating environment hazards; Outputting N safety risk indicators corresponding to the N equipment operation groups according to the equipment historical failure rate, personnel participation rate and operating environment danger; The N security risk indicators are analyzed to obtain the first device operation group.

4. The method according to claim 3, characterized in that After outputting N security risk indicators corresponding to the N device operation groups, the method further includes: Acquire multiple device operation groups that are greater than or equal to a preset risk index according to the N security risk indicators; Establishing N synchronization control submodules according to the multiple device operation groups, constructing the synchronization control module with the N synchronization control submodules, and having the synchronization control module perform partition synchronization control on the N synchronization control submodules respectively; Among them, the computing power upper limit indicator of the control software resource environment of the synchronous control module is obtained, a first constraint condition is generated according to the computing power upper limit indicator, and the number of the N synchronous control sub-modules is constrained by the first constraint condition.

5. The method according to claim 3, characterized in that Outputting N safety risk indicators corresponding to the N equipment operation groups according to the equipment historical failure rate, personnel participation rate and operating environment danger, the method further includes: By integrating equipment historical failure rate samples, personnel participation rate samples and operating environment hazard samples, equipment-personnel fusion risk samples, personnel-environment fusion risk samples and equipment-environment fusion risk samples are obtained; Performing network layer pre-training with the equipment-personnel fusion risk samples, the personnel-environment fusion risk samples, and the equipment-environment fusion risk samples to generate a fusion risk identification network layer; According to the fused risk identification network layer, N security risk indicators corresponding to the N device operation groups are output.

6. The method according to claim 1, characterized in that The method further comprises: Obtaining a platform user set of the digital management platform; Analyze the functional attributes of each user in the platform user set to generate a model call degree, wherein the model call degree is the degree of sophistication of calling the data in the visualized three-dimensional model; The authority management of the calling of the visualized three-dimensional model by the users in the digital management platform is performed according to the calling degree of the model.

7. The power engineering construction management system based on the digital management platform is characterized by: The system comprises: A visual modeling module, which is used to perform visual modeling on the power construction project based on the digital management platform and output a visual three-dimensional model, wherein the visual three-dimensional model is connected to a synchronous control module, and the synchronous control module is connected to a corresponding construction equipment control terminal; N equipment operation group acquisition modules, the N equipment operation group acquisition modules are used to acquire the real-time construction process, identify the equipment status of the real-time construction process, classify the equipment set in the working state, and acquire N equipment operation groups, wherein each equipment operation group is used to complete the same operation target; a first device operation group acquisition module, the first device operation group acquisition module being used to acquire a first device operation group by identifying security risks and hidden dangers on the N device operation groups, wherein the first device operation group is the device operation group with the highest security risks among the N device operation groups; A device synchronization identification result output module, the device synchronization identification result output module is used to establish a synchronization identification with each device in the first device operation group, and output a device synchronization identification result; A device synchronization management module, the device synchronization management module is used to input the device synchronization identification result into the synchronization control module, and perform synchronization management on each device containing the synchronization identification according to the synchronization control module; The N device operation group acquisition modules are further used to execute: Identify a set of devices in operation to obtain information exchange degree, mechanism integrity and environment identity, wherein the information exchange degree identifies the information exchange degree between devices, the mechanism integrity identifies the integrity of task mechanism settings when devices interact, and the environment identity identifies the identity of the communication network environment in which the devices are located; generating a device coordination index according to the information exchange degree, the mechanism completeness, and the environment identity; Classify the device set according to the device coordination index to obtain the N device operation groups; The information exchange degree refers to the information exchange degree between each device. By identifying the information transmission records between each device within a period of time, the number and frequency of information transmission between each device are extracted, and then the information exchange degree between each device is calculated; The mechanism completeness refers to the completeness of the task mechanism setting when the devices interact. By calculating the completeness of each task mechanism corresponding to each random device combination, it is determined whether each device in the group belongs to the same task mechanism; The environment identity refers to the identity of the communication network environment in which each device is located, that is, identifying whether each device is in the same network environment.

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