Nuclear power scene management method, system, device, computer equipment and storage medium

Abstract

The present application relates to a nuclear power scenario management method, system, device, computer equipment, storage medium and computer program product. The method includes: determining at least one nuclear power scenario identifier to be managed; generating a permission request according to at least one nuclear power scenario identifier; receiving a permission scenario identifier and a nuclear power model corresponding to the permission scenario identifier returned by the cloud according to the permission request; the permission scenario identifier is an identifier in at least one nuclear power scenario identifier; determining the nuclear power data to be processed corresponding to the permission scenario identifier; outputting the scenario management result of the nuclear power scenario corresponding to the permission scenario identifier according to the nuclear power data to be processed and the nuclear power model. The use of this method can improve the management efficiency of nuclear power scenario management.

Description

Technical Field

[0001] The present application relates to the field of industrial Internet technology, and in particular to a nuclear power scene management method, system, device, computer equipment and storage medium. Background Art

[0002] With the development of industrial Internet technology, nuclear power companies can collect equipment data of nuclear power equipment through the industrial Internet management platform, and conduct intelligent supervision of the operating conditions of nuclear power equipment based on the collected equipment data.

[0003] At present, the industrial Internet management platform usually only includes a cloud system. When the cloud system needs to monitor the operating conditions of multiple nuclear power companies at the same time, the cloud system will collect and calculate the equipment data of a large number of nuclear power equipment at the same time, thereby providing feedback on the supervision results of nuclear power equipment to different nuclear power companies.

[0004] However, since the cloud system needs to calculate a large amount of equipment data at the same time and there is a lack of unified supervision standards for the supervision results of different equipment data, the efficiency of generating scenario management results is reduced, thereby reducing the management efficiency of nuclear power equipment. Summary of the invention

[0005] Based on this, it is necessary to provide a nuclear power scenario management method, system, device, computer equipment, computer-readable storage medium and computer program product that can improve the management efficiency of nuclear power equipment in response to the above-mentioned technical problems.

[0006] In a first aspect, the present application provides a nuclear power scenario management method. The method is applied to an edge end, and the method includes:

[0007] Determining at least one nuclear power scenario identifier to be managed;

[0008] generating a licensing request based on the at least one nuclear power scenario identifier;

[0009] Receiving a permission scenario identifier and a nuclear power model corresponding to the permission scenario identifier returned by the cloud according to the permission request; the permission scenario identifier is an identifier in the at least one nuclear power scenario identifier;

[0010] Determining the nuclear power data to be processed corresponding to the license scenario identifier;

[0011] Based on the nuclear power data to be processed and the nuclear power model, a scenario management result of the nuclear power scenario corresponding to the permitted scenario identifier is output.

[0012] In one embodiment, the scenario management result of the nuclear power scenario corresponding to the permitted scenario identifier is output based on the nuclear power data to be processed and the nuclear power model, including: for each permitted scenario identifier among multiple permitted scenario identifiers, a calculation model corresponding to the current permitted scenario identifier is determined, and the nuclear power data to be processed corresponding to the current permitted scenario identifier is processed by the calculation model to obtain target nuclear power data; based on the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identifier, the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier is determined.

[0013] In one embodiment, the target nuclear power data includes target sub-data corresponding to each nuclear power equipment, and the scene management result of the nuclear power scene corresponding to the current permitted scenario identifier is determined based on the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identifier, including: determining at least one nuclear power equipment corresponding to the current permitted scenario identifier; for each of the multiple nuclear power equipment, according to the equipment identifier of the current nuclear power equipment, filtering out the current model data from the nuclear power model corresponding to the current permitted scenario identifier, and filtering out the current target sub-data from the target nuclear power data; comparing the current target sub-data with the current model data to obtain a comparison sub-result; and obtaining the scene management result of the nuclear power scene corresponding to the current permitted scenario identifier based on each of the comparison sub-results.

[0014] In a second aspect, the present application further provides a nuclear power scene management device, which is applied to an edge end and includes:

[0015] A scenario determination module, configured to determine at least one nuclear power scenario identifier to be managed; and generate a permission request according to the at least one nuclear power scenario identifier;

[0016] An identification receiving module, used to receive a permission scenario identification returned by the cloud according to the permission request and a nuclear power model corresponding to the permission scenario identification; the permission scenario identification is an identification in the at least one nuclear power scenario identification;

[0017] The result output module is used to determine the nuclear power data to be processed corresponding to the permitted scenario identifier; and output the scenario management result of the nuclear power scenario corresponding to the permitted scenario identifier based on the nuclear power data to be processed and the nuclear power model.

[0018] In a third aspect, the present application further provides a computer device. The computer device includes a memory and a processor, the memory stores a computer program, and the processor implements the following steps when executing the computer program:

[0019] Determining at least one nuclear power scenario identifier to be managed;

[0020] generating a licensing request based on the at least one nuclear power scenario identifier;

[0021] Receiving a permission scenario identifier and a nuclear power model corresponding to the permission scenario identifier returned by the cloud according to the permission request; the permission scenario identifier is an identifier in the at least one nuclear power scenario identifier;

[0022] Determining the nuclear power data to be processed corresponding to the license scenario identifier;

[0023] Based on the nuclear power data to be processed and the nuclear power model, a scenario management result of the nuclear power scenario corresponding to the permitted scenario identifier is output.

[0024] In a fourth aspect, the present application further provides a computer-readable storage medium. The computer-readable storage medium stores a computer program, and when the computer program is executed by a processor, the following steps are implemented:

[0025] Determining at least one nuclear power scenario identifier to be managed;

[0026] generating a licensing request based on the at least one nuclear power scenario identifier;

[0027] Receiving a permission scenario identifier and a nuclear power model corresponding to the permission scenario identifier returned by the cloud according to the permission request; the permission scenario identifier is an identifier in the at least one nuclear power scenario identifier;

[0028] Determining the nuclear power data to be processed corresponding to the license scenario identifier;

[0029] Based on the nuclear power data to be processed and the nuclear power model, a scenario management result of the nuclear power scenario corresponding to the permitted scenario identifier is output.

[0030] In a fifth aspect, the present application further provides a computer program product. The computer program product includes a computer program, and when the computer program is executed by a processor, the following steps are implemented:

[0031] Determining at least one nuclear power scenario identifier to be managed;

[0032] generating a licensing request based on the at least one nuclear power scenario identifier;

[0033] Receiving a permission scenario identifier and a nuclear power model corresponding to the permission scenario identifier returned by the cloud according to the permission request; the permission scenario identifier is an identifier in the at least one nuclear power scenario identifier;

[0034] Determining the nuclear power data to be processed corresponding to the license scenario identifier;

[0035] Based on the nuclear power data to be processed and the nuclear power model, a scenario management result of the nuclear power scenario corresponding to the permitted scenario identifier is output.

[0036] The above-mentioned nuclear power scenario management method, device, computer equipment, storage medium and computer program product can determine the nuclear power scenario that the nuclear power enterprise needs to manage by determining at least one nuclear power scenario identifier to be managed, and then generate a permission request based on at least one nuclear power scenario identifier, and send the permission request to the cloud, so that the permission scenario identifier returned by the cloud according to the permission request and the nuclear power model corresponding to the permission scenario identifier can be received. By receiving the permission scenario identifier returned by the cloud, the nuclear power data to be processed corresponding to the permission scenario identifier can be determined, so that the scenario management result of the nuclear power scenario corresponding to the permission scenario identifier is output through the nuclear power data to be processed and the nuclear power model returned by the cloud. Since the present application processes nuclear power data at the edge, compared with the traditional centralized data processing in the cloud, the present application can divert the data processing process to each edge, thereby improving the management efficiency of nuclear power scenario management.

[0037] In addition, since this application determines the scenario management results of the nuclear power scenario corresponding to the licensed scenario identifier through the nuclear power model corresponding to the licensed scenario identifier, and then through the nuclear power model, a unified management standard can be provided for the scenario management results of different nuclear power scenarios. Compared with the traditional method of calculating all equipment data in the absence of a unified regulatory standard for the regulatory results of equipment data. This application can provide differentiated management for the nuclear power scenario requirements of different nuclear power companies, thereby improving the accuracy of the scenario management results of nuclear power scenarios.

[0038] In a first aspect, the present application provides a nuclear power scenario management method. The method is applied in the cloud, and the method includes:

[0039] Obtaining a permission request sent by the edge end, and parsing the permission request to obtain an edge end identifier and at least one nuclear power scenario identifier;

[0040] Reviewing the license request to obtain a review result, and determining a license scenario identifier in the at least one nuclear power scenario identifier according to the review result;

[0041] Determine a nuclear power model associated with the permitted scenario identifier, and send the nuclear power model and the permitted scenario identifier to an edge end corresponding to the edge end identifier;

[0042] Among them, the sent permitted scenario identifier is used to trigger the edge end to obtain the corresponding nuclear power data to be processed; the sent nuclear power model is used to trigger the edge end to output the scenario management result of the corresponding nuclear power scenario according to the nuclear power data to be processed.

[0043] In one embodiment, determining the nuclear power model associated with the permitted scenario identifier includes: obtaining a first correspondence between the nuclear power scenario identifier and the nuclear power model; and determining the nuclear power model associated with each of the permitted scenario identifiers based on the first correspondence and the permitted scenario identifier.

[0044] In one embodiment, the method also includes: obtaining a second correspondence between multiple nuclear power scenario identifiers and model data and the nuclear power model; for each of the multiple nuclear power scenario identifiers, determining at least one nuclear power equipment associated with the current nuclear power scenario identifier based on the third correspondence between the nuclear power scenario identifier and the nuclear power equipment; for each of the multiple nuclear power equipment, determining the equipment data corresponding to the current nuclear power equipment, and obtaining a fourth correspondence between the nuclear power equipment and the nuclear power equipment data; for each of the multiple equipment data, determining the model data corresponding to the current equipment data, and obtaining a fifth correspondence between the equipment data and the model data; according to the second correspondence and the fifth correspondence, obtaining a sixth correspondence between the equipment data and the nuclear power model; according to the sixth correspondence, the fourth correspondence and the third correspondence, the model data obtains the first correspondence between the nuclear power scenario identifier and the nuclear power model.

[0045] In one embodiment, obtaining the permission request sent by the edge end includes: when receiving permission requests sent by multiple edge ends, determining the request authority corresponding to each of the edge ends, and determining the arrangement order of each of the permission requests in the storage queue based on the request authority; storing the permission requests in the storage queue according to the arrangement order.

[0046] In one embodiment, the reviewing of the license request to obtain the review result includes: traversing the license requests in the storage queue according to the arrangement order of the license requests in the storage queue; for the current license request currently traversed, determining the access rights corresponding to each nuclear power scenario identifier in the current license request; and reviewing the access rights of each nuclear power scenario identifier in the current license request to obtain the review result corresponding to each nuclear power scenario identifier.

[0047] In a second aspect, the present application further provides a nuclear power scene management device, which is applied in the cloud and includes:

[0048] A request acquisition module, used to acquire a permission request sent by an edge terminal, and parse the permission request to obtain an edge terminal identifier and at least one nuclear power scenario identifier;

[0049] a request review module, configured to review the license request, obtain a review result, and determine a license scenario identifier in the at least one nuclear power scenario identifier according to the review result;

[0050] The identification determination module is used to determine the nuclear power model associated with the permitted scenario identification, and send the nuclear power model and the permitted scenario identification to the edge end corresponding to the edge end identification.

[0051] In a third aspect, the present application further provides a computer device. The computer device includes a memory and a processor, the memory stores a computer program, and the processor implements the following steps when executing the computer program:

[0052] Obtaining a permission request sent by the edge end, and parsing the permission request to obtain an edge end identifier and at least one nuclear power scenario identifier;

[0053] Reviewing the license request to obtain a review result, and determining a license scenario identifier in the at least one nuclear power scenario identifier according to the review result;

[0054] Determine a nuclear power model associated with the permitted scenario identifier, and send the nuclear power model and the permitted scenario identifier to an edge end corresponding to the edge end identifier;

[0055] Among them, the sent permitted scenario identifier is used to trigger the edge end to obtain the corresponding nuclear power data to be processed; the sent nuclear power model is used to trigger the edge end to output the scenario management result of the corresponding nuclear power scenario according to the nuclear power data to be processed.

[0056] In a fourth aspect, the present application further provides a computer-readable storage medium. The computer-readable storage medium stores a computer program, and when the computer program is executed by a processor, the following steps are implemented:

[0057] Obtaining a permission request sent by the edge end, and parsing the permission request to obtain an edge end identifier and at least one nuclear power scenario identifier;

[0058] Reviewing the license request to obtain a review result, and determining a license scenario identifier in the at least one nuclear power scenario identifier according to the review result;

[0059] Determine a nuclear power model associated with the permitted scenario identifier, and send the nuclear power model and the permitted scenario identifier to an edge end corresponding to the edge end identifier;

[0060] Among them, the sent permitted scenario identifier is used to trigger the edge end to obtain the corresponding nuclear power data to be processed; the sent nuclear power model is used to trigger the edge end to output the scenario management result of the corresponding nuclear power scenario according to the nuclear power data to be processed.

[0061] In a fifth aspect, the present application further provides a computer program product. The computer program product includes a computer program, and when the computer program is executed by a processor, the following steps are implemented:

[0062] Obtaining a permission request sent by the edge end, and parsing the permission request to obtain an edge end identifier and at least one nuclear power scenario identifier;

[0063] Reviewing the license request to obtain a review result, and determining a license scenario identifier in the at least one nuclear power scenario identifier according to the review result;

[0064] Determine a nuclear power model associated with the permitted scenario identifier, and send the nuclear power model and the permitted scenario identifier to an edge end corresponding to the edge end identifier;

[0065] Among them, the sent permitted scenario identifier is used to trigger the edge end to obtain the corresponding nuclear power data to be processed; the sent nuclear power model is used to trigger the edge end to output the scenario management result of the corresponding nuclear power scenario according to the nuclear power data to be processed.

[0066] The above-mentioned nuclear power scenario management method, device, computer equipment, storage medium and computer program product obtain the permission request sent by the edge end and parse the permission request to obtain the edge end identifier and at least one nuclear power scenario identifier. By reviewing the permission request, the approved permission scenario identifier and the nuclear power model associated with the permission scenario identifier can be obtained, so that the nuclear power model and the permission scenario identifier can be sent to the edge end corresponding to the edge end identifier, so that the edge end outputs the scenario management result according to the received permission scenario identifier and nuclear power model. Since the cloud of the present application can send the permission scenario identifier to the corresponding edge end, so that the edge end processes the corresponding nuclear power data to be processed according to the received permission scenario identifier, therefore, compared with the traditional centralized data processing in the cloud, the present application can divert the data processing process to each edge end, thereby improving the management efficiency of nuclear power scenario management.

[0067] In addition, since this application will review the nuclear power scenario identification sent by the edge end and obtain the permitted scenario identification, the edge end will manage the corresponding nuclear power scenario according to the permitted scenario identification. Therefore, this application can determine the corresponding management authority of each edge end through the cloud, thereby improving the security of nuclear power scenario management through the setting of management authority.

[0068] In the first aspect, the present application provides a nuclear power scenario management system, including a cloud and an edge, wherein:

[0069] The edge end is used to determine at least one nuclear power scenario identifier to be managed, generate a permission request according to the at least one nuclear power scenario identifier, and send the permission request to the cloud;

[0070] A cloud, configured to review the license request, obtain a review result, and determine a license scenario identifier in the at least one nuclear power scenario identifier according to the review result;

[0071] The cloud end is used to determine a nuclear power model associated with the permitted scenario identifier, and send the nuclear power model and the permitted scenario identifier to an edge end corresponding to the edge end identifier;

[0072] The edge end is used to determine the nuclear power data to be processed corresponding to the permitted scenario identifier, and output the scenario management result of the nuclear power scenario corresponding to the permitted scenario identifier based on the nuclear power data to be processed and the nuclear power model.

[0073] In one embodiment, the edge end includes a first portal middle station, a first configuration tool, a first business middle station, and a first data middle station, wherein: the first portal middle station is used to determine at least one nuclear power scenario identifier to be managed; the first configuration tool is used to generate a license request based on the at least one nuclear power scenario identifier; the first business middle station is used to receive the license scenario identifier and the nuclear power model corresponding to the license scenario identifier returned by the cloud according to the license request; the first data middle station is used to determine the nuclear power data to be processed corresponding to the license scenario identifier; the first business middle station is used to output the scenario management result of the nuclear power scenario corresponding to the license scenario identifier based on the nuclear power data to be processed and the nuclear power model.

[0074] In one embodiment, the edge end includes: the first portal middle station, which is also used to subscribe to the nuclear power scenario identifier and determine the subscribed nuclear power scenario identifier; the first data middle station, which is also used to determine the nuclear power data to be processed corresponding to the subscribed nuclear power scenario identifier; the first business middle station, which is also used to determine the nuclear power model corresponding to the subscribed nuclear power scenario identifier.

[0075] In one embodiment, the cloud includes a second portal platform, a second data platform, a second configuration tool, and a second business platform, wherein: the second portal platform is used to determine the nuclear power model to be updated, and the nuclear power equipment associated with the nuclear power model to be updated; the second data platform is used to obtain the equipment data of the nuclear power equipment associated with the nuclear power model to be updated, and obtain the calculation results after calculating the equipment data; the second data platform is used to update the nuclear power model to be updated according to the calculation results to obtain an updated nuclear power model; the second configuration tool is used to review the updated nuclear power model, and send the updated nuclear power model that has passed the review to the second business platform; the second business platform is used to establish a model microservice corresponding to the updated nuclear power model, and store the model microservice through a microservice architecture.

[0076] The above-mentioned nuclear power scenario management system, by constructing a collaborative interaction system between the edge and the cloud, can perform unified and intelligent management of the edge's licensing requests through the cloud, thereby improving the scalability of the edge and the efficiency of the edge in managing nuclear power scenarios; the edge directly determines the scenario management results of the corresponding nuclear power scenarios based on the nuclear power data to be processed and the nuclear power model, which can provide the edge with a unified standard for determining the scenario management results, while also reducing the amount of data processing on the cloud. Since the cloud of the present application can send the license scenario identifier to the corresponding edge, so that the edge processes the corresponding nuclear power data to be processed according to the received license scenario identifier, therefore, compared to the traditional centralized data processing in the cloud, the present application can divert the data processing process to each edge, thereby improving the management efficiency of nuclear power scenario management. BRIEF DESCRIPTION OF THE DRAWINGS

[0077] Figure 1 An application environment diagram of a nuclear power scenario management method in an embodiment;

[0078] Figure 2 A schematic diagram of a process flow of a nuclear power scenario management method in one embodiment;

[0079] Figure 3 A schematic diagram of a flow chart of a nuclear power scene management method in another embodiment;

[0080] Figure 4 is a schematic diagram of a first corresponding relationship in an embodiment;

[0081] Figure 5 A structural block diagram of a nuclear power scenario management system in one embodiment;

[0082] Figure 6 This is a structural block diagram of a second data center in an embodiment;

[0083] Figure 7 This is a structural block diagram of the first business middle station in an embodiment;

[0084] Figure 8 is a structural block diagram of a nuclear power scenario management system in another embodiment;

[0085] Fig. 9 is a structural block diagram of a nuclear power scene management device in an embodiment;

[0086] Fig.10 is a structural block diagram of a nuclear power scene management device in another embodiment;

[0087] Fig.11 FIG. 4 is a diagram showing the internal structure of a computer device in one embodiment. DETAILED DESCRIPTION

[0088] In order to make the purpose, technical solution and advantages of the present application more clearly understood, the present application is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present application and are not used to limit the present application.

[0089] The nuclear power scene management method provided in the embodiment of the present application can be applied to Figure 1 In the application environment shown, the application environment includes a first computer device 102, a second computer device 104 and a nuclear power device 106, wherein the first computer device 102 can be considered as an edge end, the second computer device 104 can be considered as a cloud, and the first computer device 102 can communicate with the second computer device 104 through a network. The first computer device 102 is used to determine a permission request for a nuclear power scenario identifier to be managed, and send the permission request to the second computer device 104, and the second computer device 104 is used to review the received permission request, and send the permission scenario identifier determined by the review result and the nuclear power model associated with the permission scenario identifier to the first computer device 102, so that the first computer device 102 obtains the corresponding nuclear power data to be processed from the nuclear power device 106 according to the received permission scenario identifier and the nuclear power model, and outputs the scene management result of the corresponding nuclear power scene according to the obtained nuclear power data to be processed. The first computer device 102 and the second computer device 104 may be terminals or servers, and the terminals may be smart phones, tablet computers, laptop computers, desktop computers, smart speakers, smart watches, vehicle terminals, smart TVs, etc., but are not limited thereto. The server may be an independent physical server, or a server cluster or distributed system composed of multiple physical servers, or a cloud server providing cloud computing services.

[0090] In one embodiment, Figure 2As shown, a nuclear power scene management method is provided, and the method is applied to a first computer device as an example for description. The nuclear power scene management method includes the following steps:

[0091] Step 202: determine at least one nuclear power scenario identifier to be managed.

[0092] The nuclear power scenario identifier refers to information that uniquely identifies a nuclear power scenario. For example, the nuclear power scenario identifier can be the number of the nuclear power scenario. The nuclear power scenario refers to the application scenario of the nuclear power equipment during the process of testing the nuclear power equipment and providing a nuclear power equipment operation solution based on the test results, such as operation monitoring, equipment management, energy consumption optimization, quality inspection and other application scenarios of the nuclear power equipment.

[0093] Among them, edge refers to the computer equipment that performs edge computing. The computing process of edge computing is realized by local devices without being handed over to the cloud. This will greatly improve processing efficiency and reduce the load on the cloud. The edge can be any node with computing resources and network resources between the data source and the cloud center. For example, a mobile phone is the edge between a person and the cloud center, and a gateway is the edge between a smart home and the cloud center. In an ideal environment, edge computing refers to analyzing and processing data near the data source, without data flow, thereby reducing network traffic and response time.

[0094] Specifically, the first computer device determines at least one nuclear power scenario to be managed and a nuclear power scenario identifier corresponding to each nuclear power scenario in response to the user's selection operation of the nuclear power scenario. The nuclear power scenario to be managed refers to a scenario in which the nuclear power equipment needs to be tested and the corresponding nuclear power equipment operation solution is provided to the user according to the test results. For example, when the nuclear power scenario to be managed is an energy consumption optimization application scenario, it can be considered that the power supply of the nuclear power equipment for a whole day needs to be calculated, and solutions such as staggered power supply for different time periods to improve power supply efficiency are provided according to the calculation results.

[0095] Step 204: Generate a license request based on at least one nuclear power scenario identifier.

[0096] Specifically, the first computer device determines the nuclear power scenario identifier corresponding to each nuclear power scenario, and generates a license request corresponding to the first computer device according to the nuclear power scenario identifier corresponding to each nuclear power scenario. Different first computer devices may generate different license requests.

[0097] In one embodiment, the first computer device can provide a user with a subscription interface for a nuclear power scenario, which can be used to record the user's subscription operation on the nuclear power scenario and to uniformly manage the user's resource information. The user can query the nuclear power scenario and the data resources associated with the nuclear power scenario through the subscription interface, thereby obtaining the scenario management results of the subscribed nuclear power scenario, and cancel the data resources when there are duplicate subscriptions or data resources are in violation of regulations.

[0098] In one embodiment, the first computer device performs a subscription query on the nuclear power scenario to determine the nuclear power scenario that has completed the subscription, wherein the completed subscription means that the corresponding scenario management result has been output by sending a permission request to the cloud. The first computer device determines the pending nuclear power data and nuclear power model corresponding to the subscribed nuclear power scenario identifier based on the subscribed nuclear power scenario identifier, and then outputs the scenario management result of the nuclear power scenario corresponding to the subscribed nuclear power scenario identifier based on the pending nuclear power data and nuclear power model. That is, after the first computer device determines the subscribed nuclear power scenario identifier, it does not need to send a permission request to the cloud, and can directly perform scenario management on the corresponding nuclear power scenario.

[0099] In this embodiment, by providing a subscription interface for nuclear power scenarios, users can query the subscribed nuclear power scenarios and then directly manage the subscribed nuclear power scenarios based on the query results, thereby avoiding the process of submitting permission requests to the cloud for the subscribed nuclear power scenarios and improving the efficiency of nuclear power scenario management.

[0100] Step 206, receiving the permitted scenario identifier and the nuclear power model corresponding to the permitted scenario identifier returned by the cloud according to the permission request; the permitted scenario identifier is an identifier in at least one nuclear power scenario identifier.

[0101] Among them, the nuclear power model is a standard model that includes multiple model data, which is formed by solidifying the equipment data of nuclear power equipment through different training and iteration methods through nuclear power industry knowledge and professional technology.

[0102] Specifically, the first computer device sends the license request generated by the nuclear power scenario identifier to the cloud, so that the cloud determines the access rights corresponding to each nuclear power scenario identifier in the license request, and filters out the permitted scenario identifier from the nuclear power scenario identifier according to the access rights, that is, if the access rights of the current nuclear power scenario identifier are permitted, the current nuclear power scenario identifier is used as the permitted scenario identifier; if the access rights of the current nuclear power scenario identifier are prohibited, the current nuclear power scenario identifier is not used as the permitted scenario identifier until the permitted scenario identifiers in all nuclear power scenario identifiers are filtered out and the permitted scenario identifiers are sent to the first computer device. For example, in the above example, if the current nuclear power scenario is a device management application scenario, the access rights to the device management identifier are permitted, the device management identifier is used as the permitted scenario identifier; if the current nuclear power scenario is an energy consumption optimization application scenario, the access rights to the energy consumption optimization identifier are prohibited, and the energy consumption optimization identifier cannot be used as a permitted scenario identifier.

[0103] Furthermore, when the cloud determines the permitted scenario identifier, the cloud can also determine the nuclear power model corresponding to each permitted scenario identifier, and send the permitted scenario identifier and the nuclear power model corresponding to the permitted scenario identifier to the first computer device. The permitted scenario identifier is associated with at least one nuclear power equipment, and the nuclear power model includes model data of at least one nuclear power equipment.

[0104] Step 208, determining the nuclear power data to be processed corresponding to the permitted scenario identifier.

[0105] Specifically, for each permitted scenario identifier among the multiple permitted scenario identifiers received from the cloud, the first computer device determines at least one nuclear power device associated with the current permitted scenario identifier and at least one to-be-processed nuclear power data associated with each nuclear power device based on the correspondence between the nuclear power scenario identifier and the nuclear power device, for example, pulling nuclear power data from the determined nuclear power device, and using the pulled nuclear power data as the to-be-processed nuclear power data. The to-be-processed nuclear power data is the data acquired when the nuclear power equipment in the current nuclear power scenario corresponding to the current permitted scenario identifier needs to be detected. For example, in the above example, if the device management identifier corresponding to the device management application scenario is a permitted scenario identifier, at least one nuclear power device associated with the device management identifier is determined, such as electric pumps, voltage stabilizers, condensers and other nuclear power equipment, and the to-be-processed nuclear power data corresponding to each nuclear power device is determined, such as the speed data and head data of the electric pump.

[0106] Step 210: outputting the scenario management result of the nuclear power scenario corresponding to the permitted scenario identifier according to the nuclear power data to be processed and the nuclear power model.

[0107] Among them, the scenario management result is a nuclear power equipment operation solution provided by the first computer device based on the detection result of the nuclear power equipment associated with the permitted scenario identifier after the detection.

[0108] Specifically, the first computer device determines at least one nuclear power device associated with the permitted scenario identifier, and performs data processing on the to-be-processed nuclear power data associated with each nuclear power device to obtain target sub-data associated with each nuclear power device. The first computer device integrates the target sub-data corresponding to each nuclear power device to obtain target nuclear power data corresponding to the permitted scenario identifier. The first computer device compares the model data in the nuclear power model with the target nuclear power data to obtain the difference between the target nuclear power data and the model data. The first computer device determines the operation solution of the nuclear power device associated with the target nuclear power data based on the difference between the target nuclear power data and the model data, and obtains the scenario management result of the nuclear power scenario corresponding to the permitted scenario identifier based on the operation solution of each nuclear power device.

[0109] In the above-mentioned nuclear power scenario management method, by determining at least one nuclear power scenario identifier to be managed, the nuclear power scenario that the nuclear power enterprise needs to manage can be determined, and then a permission request is generated according to at least one nuclear power scenario identifier, and the permission request is sent to the cloud, so that the permission scenario identifier returned by the cloud according to the permission request and the nuclear power model corresponding to the permission scenario identifier can be received. By receiving the permission scenario identifier returned by the cloud, the nuclear power data to be processed corresponding to the permission scenario identifier can be determined, so that the scenario management result of the nuclear power scenario corresponding to the permission scenario identifier is output through the nuclear power data to be processed and the nuclear power model returned by the cloud. Since the present application processes nuclear power data at the edge, compared with the traditional centralized data processing in the cloud, the present application can divert the data processing process to each edge, thereby improving the management efficiency of nuclear power scenario management.

[0110] In one embodiment, for each permitted scenario identification among multiple permitted scenario identifications, a calculation model corresponding to the current permitted scenario identification is determined, and the unprocessed nuclear power data corresponding to the current permitted scenario identification is processed through the calculation model to obtain target nuclear power data; based on the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identification, the scene management result of the nuclear power scene corresponding to the current permitted scenario identification is determined.

[0111] Among them, the computing model is an analytical computing framework based on a microservice architecture, which integrates multi-sensor fusion algorithms and various analytical computing engines. It is used to distribute and efficiently compress multi-source heterogeneous data collected by nuclear power equipment, and convert the unprocessed nuclear power data associated with nuclear power equipment into target nuclear power data by calculating and analyzing the data.

[0112] Specifically, the first computer device determines the calculation model corresponding to each nuclear power device associated with the current licensed scenario identifier for each of the multiple licensed scenario identifiers. For each nuclear power device associated with the current licensed scenario identifier, the first computer device processes the to-be-processed nuclear power data extracted from the current nuclear power device through the calculation model corresponding to the current nuclear power device to obtain the target sub-data associated with the current nuclear power device. The first computer device obtains the management sub-result corresponding to the current nuclear power device based on the target sub-data associated with the current nuclear power device and the model data in the nuclear power model corresponding to the current licensed scenario identifier. Further, the first computer device obtains the scene management result corresponding to the current licensed scenario identifier based on the management sub-results corresponding to the multiple nuclear power devices corresponding to the current nuclear power scenario identifier. It is easy to understand that since the current licensed scenario identifier can correspond to multiple nuclear power devices, and each nuclear power device corresponds to a target sub-result, the target nuclear power data corresponding to the current licensed scenario identifier may include multiple target sub-results.

[0113] In this embodiment, the pending nuclear power data of the nuclear power equipment are processed respectively by different calculation models to obtain target nuclear power data that can better reflect the operating status of the nuclear power equipment, and then based on the target nuclear power data and the model data in the nuclear power model, more accurate scene management results of the nuclear power scene are obtained.

[0114] In one embodiment, the target nuclear power data includes target sub-data corresponding to each nuclear power equipment. According to the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identifier, the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier is determined, including: determining at least one nuclear power equipment corresponding to the current permitted scenario identifier; for each of the multiple nuclear power equipment, according to the equipment identifier of the current nuclear power equipment, filtering out the current model data from the nuclear power model corresponding to the current permitted scenario identifier, and filtering out the current target sub-data from the target nuclear power data; comparing the current target sub-data with the current model data to obtain a comparison sub-result; according to each comparison sub-result, obtaining the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier.

[0115] Specifically, the first computer device determines the device identification of at least one nuclear power device associated with the current license scenario identification, and for each of the multiple nuclear power devices, the current model data is filtered out from the nuclear power model corresponding to the current license scenario identification, and the current target sub-data is filtered out from the target nuclear power data according to the device identification of the current nuclear power device, and the current target sub-data is compared with the current model data to obtain a comparison sub-result. For example, the model data includes the device identification of the nuclear power device, and correspondingly, the target sub-data also includes the device identification of the nuclear power device, so that the first computer device can use the target nuclear power data and the model data with the same device identification as a corresponding pair of data, and then determine the data difference of the pair of data to obtain a comparison sub-result, that is, to obtain a comparison sub-result corresponding to the nuclear power device.

[0116] Furthermore, since the current permitted scenario identifier may be associated with multiple nuclear power equipment, the first computer device may obtain the scenario management result corresponding to the current permitted scenario identifier based on the respective corresponding comparison sub-results of each nuclear power equipment.

[0117] For example, when it is determined that the current nuclear power equipment is an electric pump, the first computer device can filter out the current model data from the nuclear power model as "motor rated speed: 2900r / min", "water pump head: 32m", and "outlet pressure: 4MPa to 32MPa" according to the equipment identification of the electric pump. The first computer device compares the target sub-data determined by the nuclear power equipment to be processed based on the electric pump with the current model data to obtain a comparison sub-result. For example, if the target sub-data is "outlet pressure: 3MPa", the target sub-data is compared with the current model data, and the comparison sub-result is that the outlet pressure value is small; if the target sub-data is "actual motor speed: 1000r / min", the target sub-data is compared with the current model data, and the comparison sub-result is that the actual motor speed is much lower than the rated motor speed. Therefore, based on multiple comparison sub-results, the scene management result obtained later may be that the discharge pipe of the electric pump needs to be replaced, or the motor may be damaged and needs to be repaired.

[0118] In this embodiment, the current model data is screened out from the nuclear power model corresponding to the current permitted scenario identifier, and the current model data is used as the basis for managing the nuclear power scenario, thereby unifying the management standards for nuclear power scenario management.

[0119] In one embodiment, Figure 3 As shown, a nuclear power scene management method is provided, and the method is applied to the cloud. Taking the method applied to a second computer device as an example for explanation, the nuclear power scene management method includes the following steps:

[0120] Step 302: Obtain a permission request sent by the edge terminal, and parse the permission request to obtain an edge terminal identifier and at least one nuclear power scenario identifier.

[0121] Specifically, the second computer device receives a license request sent by the edge end, and parses the license request to obtain an edge end identifier included in the license request and at least one nuclear power scenario identifier to be managed determined by the user at the edge end.

[0122] In one embodiment, when permission requests are received from multiple edge terminals, the request authority corresponding to each edge terminal is determined, and the arrangement order of each permission request in the storage queue is determined based on the request authority; the permission requests are processed according to the arrangement order.

[0123] Step 304, review the license request, obtain a review result, and determine a license scenario identifier in at least one nuclear power scenario identifier based on the review result.

[0124] Specifically, the second computer device reviews the access rights of each nuclear power scenario identifier according to at least one nuclear power scenario identifier in the permission request, and obtains the review result corresponding to each nuclear power scenario identifier, that is, if the access rights of the current nuclear power scenario identifier are permitted, the review result of the current nuclear power scenario identifier is passed; if the access rights of the current nuclear power scenario identifier are prohibited, the review result of the current nuclear power scenario identifier is not passed. The second computer device screens out the nuclear power scenario identifiers with a passed review result from the review results of the nuclear power scenario identifiers, and uses the nuclear power scenario identifiers with a passed review result as the permitted scenario identifier.

[0125] In one embodiment, the second computer device traverses the license requests in the storage queue according to the arrangement order of the license requests in the storage queue; for the current license request currently traversed, the access rights corresponding to each nuclear power scenario identifier in the current license request are determined; the second computer device reviews the access rights of each nuclear power scenario identifier in the current license request to obtain the review results corresponding to each nuclear power scenario identifier.

[0126] In this embodiment, by determining the arrangement order of the license requests in the storage queue, the second computer device can parse and process the license requests in sequence according to the arrangement order, reducing the probability of missing a license request, thereby improving the efficiency of managing different nuclear power scenarios.

[0127] Step 306: determine the nuclear power model associated with the permitted scenario identifier, and send the nuclear power model and the permitted scenario identifier to the edge end corresponding to the edge end identifier.

[0128] Among them, the sent permitted scenario identifier is used to trigger the edge end to obtain the corresponding nuclear power data to be processed; the sent nuclear power model is used to trigger the edge end to output the scenario management result of the corresponding nuclear power scenario according to the nuclear power data to be processed.

[0129] Specifically, the second computer device determines at least one nuclear power device associated with the permitted scenario identifier and determines the to-be-processed nuclear power data associated with each nuclear power device according to the permitted scenario identifier. The second computer device determines the model data corresponding to each to-be-processed nuclear power data in the nuclear power model according to the to-be-processed nuclear power data, so that the second computer device sends the nuclear power model and the permitted scenario identifier to the edge end corresponding to the edge end identifier.

[0130] In the above-mentioned nuclear power scenario management method, the edge terminal identifier and at least one nuclear power scenario identifier are obtained by obtaining the permission request sent by the edge terminal and parsing the permission request. By reviewing the permission request, the approved permission scenario identifier and the nuclear power model associated with the permission scenario identifier can be obtained, so that the nuclear power model and the permission scenario identifier can be sent to the edge terminal corresponding to the edge terminal identifier, so that the edge terminal outputs the scenario management result according to the received permission scenario identifier and nuclear power model. Since the cloud of the present application can send the permission scenario identifier to the corresponding edge terminal, so that the edge terminal processes the corresponding nuclear power data to be processed according to the received permission scenario identifier, therefore, compared with the traditional centralized data processing in the cloud, the present application can divert the data processing process to each edge terminal, thereby improving the management efficiency of nuclear power scenario management.

[0131] In one embodiment, determining a nuclear power model associated with a permitted scenario identifier includes: obtaining a first correspondence between the nuclear power scenario identifier and the nuclear power model; and determining the nuclear power model associated with each permitted scenario identifier based on the first correspondence and the permitted scenario identifier.

[0132] Specifically, the second computer device determines the nuclear power model associated with the permitted scenario identifier by acquiring the first corresponding relationship between the nuclear power scenario identifier and the nuclear power model.

[0133] In this embodiment, by constructing a first correspondence between the nuclear power scenario identifier and the nuclear power model, the nuclear power model associated with the permitted scenario identifier can be quickly determined, thereby improving the processing efficiency of the nuclear power data to be processed.

[0134] In one embodiment, the above method also includes: obtaining multiple nuclear power scenario identifiers, and a second correspondence between model data and nuclear power models; for each of the multiple nuclear power scenario identifiers, determining at least one nuclear power equipment associated with the current nuclear power scenario identifier based on the third correspondence between the nuclear power scenario identifier and the nuclear power equipment; for each of the multiple nuclear power equipment, determining the equipment data corresponding to the current nuclear power equipment, and obtaining a fourth correspondence between the nuclear power equipment and the equipment data; for each of the multiple equipment data, determining the model data corresponding to the current equipment data, and obtaining a fifth correspondence between the equipment data and the model data; based on the second correspondence and the fifth correspondence, obtaining a sixth correspondence between the equipment data and the nuclear power model; based on the sixth correspondence, the fourth correspondence and the third correspondence, obtaining a first correspondence between the nuclear power scenario identifier and the nuclear power model.

[0135] Specifically, exemplary Figure 4 As shown, Figure 4 A schematic diagram of multiple correspondences is provided. Among them, the second correspondence between the nuclear power model and the model data is that a nuclear power model may include at least one model data. The third correspondence between the nuclear power scene identifier and the nuclear power equipment is that a nuclear power scene identifier is associated with at least one nuclear power equipment. The fourth correspondence between the nuclear power equipment and the equipment data of the nuclear power equipment is that one nuclear power equipment is associated with at least one equipment data. The fifth correspondence between the equipment data and the model data is that one equipment data is associated with one model data. Therefore, the sixth correspondence between the equipment data and the nuclear power model is that one equipment data is associated with one nuclear power model. Therefore, the second computer device can obtain the sixth correspondence between the equipment data and the nuclear power model through the above-mentioned second correspondence and the fifth correspondence, and obtain the first correspondence between the nuclear power scene identifier and the nuclear power model according to the sixth correspondence, the fourth correspondence and the third correspondence.

[0136] For example, reference Figure 4 When the current nuclear power scenario identifier is the equipment management identifier, the nuclear power equipment associated with the equipment management identifier includes equipment 1, equipment 2, and up to equipment n, the equipment data associated with equipment 1 includes equipment data a and equipment data b, and the equipment data associated with equipment 2 includes equipment data c; the model data corresponding to equipment data a is model data a1, the model data corresponding to equipment data b is model data b1, and the model data corresponding to equipment data c is model data c1, wherein model data a1 corresponds to nuclear power model 2, model data b1 corresponds to nuclear power model 1, and model data c1 corresponds to nuclear power model 1. Therefore, the first corresponding relationship between the nuclear power scenario identifier and the nuclear power model is obtained.

[0137] In this embodiment, the first correspondence between the nuclear power scenario identifier and the nuclear power model is obtained based on the correspondence between the nuclear power scenario identifier and the nuclear power equipment, the correspondence between the nuclear power equipment and the equipment data, and the correspondence between the equipment data and the nuclear power model. This allows the nuclear power model associated with each permitted scenario identifier to be determined subsequently by establishing the first correspondence, thereby improving the efficiency of managing nuclear power scenarios.

[0138] In one embodiment, Figure 5 As shown, a structural block diagram of a nuclear power scenario management system is provided, the system includes a cloud and an edge end, wherein the edge end is used to determine at least one nuclear power scenario identifier to be managed, and generate a permission request based on at least one nuclear power scenario identifier, and send the permission request to the cloud end; the cloud end is used to review the permission request, obtain a review result, and determine a permitted scenario identifier in at least one nuclear power scenario identifier based on the review result; the cloud end is used to determine a nuclear power model associated with the permitted scenario identifier, and send the nuclear power model and the permitted scenario identifier to the edge end corresponding to the edge end identifier; the edge end is used to determine the nuclear power data to be processed corresponding to the permitted scenario identifier, and output the scenario management result of the nuclear power scenario corresponding to the permitted scenario identifier based on the nuclear power data to be processed and the nuclear power model.

[0139] Among them, the entity corresponding to the edge end is usually a nuclear power enterprise or a nuclear power area in a nuclear power enterprise, and the entity corresponding to the cloud end is usually a control group end that configures permissions for the nuclear power enterprise.

[0140] Among them, the cloud includes a second configuration tool and a second business middle station, wherein the second configuration tool is used to review the received licensing requests; the second business middle station is used to determine the licensing scenario identifier and the nuclear power model associated with the licensing scenario identifier based on the review results, and send the licensing scenario identifier and the nuclear power model to the edge.

[0141] The edge end includes a first portal middle station, a first configuration tool, a first business middle station, and a first data middle station, wherein the first portal middle station is used to provide a configuration interface for nuclear power scenarios and determine the nuclear power scenario identifier of the nuclear power scenario to be managed; the first configuration tool is used to create a license request process corresponding to the nuclear power scenario identifier and send the license request to the cloud; the first business middle station is used to receive the license scenario identifier and nuclear power model sent by the cloud, and determine the nuclear power equipment associated with the license scenario identifier; the first data middle station is used to store and calculate the unprocessed nuclear power data of the nuclear power equipment; the first business middle station is also used to compare the model data in the nuclear power model with the processed target nuclear power data to obtain the scene management result of the nuclear power scenario corresponding to the license scenario identifier; the first portal middle station is also used to display the scene management result of the nuclear power scenario.

[0142] Specifically, the first portal middle station of the edge end displays a configuration interface for the nuclear power scenario. In response to the user's selection operation of the nuclear power scenario in the configuration interface, the nuclear power scenario identifier of at least one nuclear power scenario to be managed is determined, a request process for the nuclear power scenario identifier is created through the first configuration tool, and a license request is generated based on at least one nuclear power scenario identifier and the edge end identifier of the edge end, and then the license request is sent to the cloud. The cloud end reviews the received license request through the second configuration tool, filters out the license scenario identifier from the nuclear power scenario identifier in the license request, and determines the nuclear power model associated with the license scenario identifier through the second business middle station, thereby sending the license scenario identifier and the nuclear power model associated with the license scenario identifier to the edge end. After the edge end receives the license scenario identifier and the nuclear power model associated with the license scenario identifier through the first business middle station, it determines the nuclear power equipment associated with the license scenario identifier and the nuclear power data to be processed of the nuclear power equipment. The edge end stores and calculates the collected nuclear power data to be processed through the first data middle end to obtain the processed target nuclear power data. Then the edge end compares the model data in the nuclear power model with the processed target nuclear power data through the first business middle end to obtain the scene management result of the nuclear power scene corresponding to the licensed scene identifier, and displays the scene management result on the first portal middle end.

[0143] In one embodiment, the edge end includes: a first portal middle station, which is also used to subscribe to and query the nuclear power scenario identifier to determine the subscribed nuclear power scenario identifier; a first data middle station, which is also used to determine the nuclear power data to be processed corresponding to the subscribed nuclear power scenario identifier; and a first business middle station, which is also used to determine the nuclear power model corresponding to the subscribed nuclear power scenario identifier.

[0144] Specifically, refer to Figure 5 The first portal middle station at the edge displays a subscription interface for nuclear power scenarios, and in response to a user's query operation on the nuclear power scenario in the subscription interface, determines the identifier of the nuclear power scenario that has been subscribed. The first data middle station determines the unprocessed nuclear power data corresponding to the subscribed nuclear power scenario identifier, and at the same time, the first business middle station determines the nuclear power model corresponding to the subscribed nuclear power scenario identifier. Furthermore, the first business middle station directly outputs the scenario management result of the nuclear power scenario corresponding to the subscribed nuclear power scenario identifier based on the unprocessed nuclear power data and the nuclear power model.

[0145] In this embodiment, the edge end no longer needs to submit a permission request to the cloud, and can directly manage the subscribed nuclear power scenarios, thereby improving the efficiency of nuclear power scenario management.

[0146] In one embodiment, the edge end includes a first portal middle station, a first configuration tool, a first business middle station, and a first data middle station, wherein: the first portal middle station is used to determine at least one nuclear power scenario identifier to be managed; the first configuration tool is used to generate a license request based on at least one nuclear power scenario identifier; the first business middle station is used to receive the license scenario identifier and the nuclear power model corresponding to the license scenario identifier returned by the cloud according to the license request; the first data middle station is used to determine the nuclear power data to be processed corresponding to the license scenario identifier; the first business middle station is used to output the scenario management result of the nuclear power scenario corresponding to the license scenario identifier based on the nuclear power data to be processed and the nuclear power model.

[0147] Among them, exemplary ones are Figure 6 As shown, Figure 6 A structural block diagram of a first business middle station is provided. The first business middle station includes an industrial application center 602, an industrial model library 604, and a microservice component 606, wherein the industrial application center 602 is at least one nuclear power scenario built around themes such as operation monitoring, equipment management, energy consumption optimization, quality inspection, and remote operation and maintenance, and provides edge-cloud collaborative nuclear power scenario management solutions for the edge end. For example, operation monitoring scenarios include: real-time information monitoring of nuclear power plants, real-time monitoring of the status of nuclear power plant units across the country; equipment management scenarios include: fatigue and aging management of key nuclear power equipment, vibration loosening management of core equipment; environmental monitoring scenarios include: plant radiation and meteorological monitoring, radiation safety online supervision, etc. The industrial model library 604 precipitates industrial domain knowledge into storable mechanism algorithms or model algorithms, and stores model algorithms, such as parameter change models, equipment models, system-level models, functional models, etc. Microservice component 606 is a microservice framework composed of container cloud, general middleware, tenant management, etc., which is used to establish model microservices corresponding to nuclear power models and scenario microservices corresponding to nuclear power scenarios, and manage model microservices and scenario microservices through the microservice architecture.

[0148] Among them, the process of the edge end outputting the scene management result of the nuclear power scene according to the permission request can refer to the above-mentioned method embodiment, and the embodiment of the present application will not be repeated here.

[0149] In one embodiment, the cloud includes a second portal platform, a second data platform, a second configuration tool, and a second business platform, wherein: the second portal platform is used to determine the nuclear power model to be updated and the nuclear power equipment associated with the nuclear power model to be updated; the second data platform is used to obtain the equipment data of the nuclear power equipment associated with the nuclear power model to be updated, and obtain the calculation results after calculating the equipment data; the second data platform is used to update the nuclear power model to be updated according to the calculation results to obtain an updated nuclear power model; the second configuration tool is used to review the updated nuclear power model, and send the updated nuclear power model that has passed the review to the second business platform; the second business platform is used to establish a model microservice corresponding to the updated nuclear power model, and store the model microservice through the microservice architecture.

[0150] Among them, exemplary ones are Figure 7 As shown, Figure 7 A structural block diagram of a second data center is provided. The second data center includes a data management engine 702 and an industrial computing scheduling engine 704, wherein the data management engine 702 includes at least one database, such as a time series database, a relational database, an MPP database, an object storage, a graph database, etc., which can meet the large-scale, high-concurrency data access and massive data storage requirements in nuclear power scenarios; the industrial computing scheduling engine 704 includes at least one model calculation method and at least one data calculation function, the model calculation methods include batch calculation, streaming calculation, interactive calculation, deep learning, etc., and the data calculation functions include calculation analysis operators and model library management, calculation task scheduling and monitoring, data access, etc.

[0151] Specifically, the second portal platform in the cloud displays a development interface of the nuclear power model, and in response to the user's selection operation on the nuclear power model, determines the nuclear power model to be updated and the nuclear power equipment associated with the nuclear power model to be updated. The cloud obtains the equipment data of the nuclear power equipment through the second data platform, calculates the equipment data through the model algorithm in the second data platform, and stores the calculated equipment data in the nuclear power model, thereby updating the nuclear power model. The cloud reviews the updated nuclear power model through the second configuration tool, and after the review is passed, sends the updated nuclear power model and the nuclear power scenario associated with the updated nuclear power model to the second business platform. The second business platform establishes a model microservice corresponding to the updated nuclear power model and a scenario microservice corresponding to the nuclear power scenario, and stores the model microservice and scenario microservice through the microservice architecture.

[0152] In this embodiment, the nuclear power model is developed and debugged through the cloud, thereby providing a unified management standard for the scenario management results of different nuclear power scenarios, thereby ensuring the smooth implementation of scenario management for nuclear power scenarios.

[0153] In one embodiment, Figure 8 As shown, a structural block diagram of another nuclear power scenario management system is provided. The system includes: a data middle platform, a business middle platform, a portal middle platform and a collaborative configuration tool.

[0154] Among them, the data middle platform is used to distribute and efficiently compress the multi-source heterogeneous data collected by the edge layer through the data management engine, and build an analysis and computing framework based on the microservice architecture. At the same time, the data middle platform integrates an edge-cloud collaborative industrial computing scheduling engine. The industrial computing scheduling engine provides a basic computing environment through multi-sensor fusion algorithms and various analysis and computing engines.

[0155] The data management engine meets the needs of large-scale, high-concurrency data access and massive data storage in industrial sites through time series databases, relational databases, MPP databases, object storage and graph databases. Among them, the time series database integrates powerful programming languages ​​and stream data analysis systems, providing a one-stop solution for the rapid storage, retrieval, analysis and calculation of massive structured data, and supports writing millions of data per second. The relational database supports the connection of multiple common databases, including Oracle, MySQL, PostgreSQL, MS SQL Server, etc. through the JDBC standard method. The object storage service provides object storage with both enterprise-level storage capabilities and intelligent retrieval processing capabilities. It builds a cross-regional storage architecture that can be linearly expanded based on standard servers. While providing high reliability and high availability service capabilities, it integrates data intelligent processing and analysis capabilities, simplifies the infrastructure required for massive data processing, and improves data processing efficiency. The graph database provides support for the rapid import and use of data sources such as File / HDFS / MySQL, and provides visual import operations; supports a variety of graph data presentation methods, node expansion, mixed condition query, etc.

[0156] The industrial computing scheduling engine is responsible for large-scale computing analysis and returns the computing results according to actual requirements. It has distributed characteristics and can perform batch computing, streaming computing, interactive computing, deep learning distributed computing, and streaming computing in the entire platform cluster. It supports powerful and flexible scripting languages, library functions, and user-defined functions. Among them, batch computing, by running on a large-scale cluster of general-purpose computers, distributed programs can perform large-scale data processing in parallel, thereby improving the efficiency of data processing. Streaming computing is used to process data streams and provide second-level responses for real-time computing. Interactive computing provides interactive services by providing the Web, combining explanatory text, mathematical equations, codes, and visualization content into an easy-to-share document. Deep learning integrates deep learning frameworks represented by TensorFlow, including creating applications, data management, data segmentation, creating neural networks, hyperparameter configuration, training tracking, viewing results, model deployment, and application launch.

[0157] The industrial computing scheduling engine also includes computing analysis operators and model library management, computing task scheduling and monitoring, data access and other functions. Among them, computing analysis operators and model library model management support the management of computing models by project division and multi-level classification; the graphical modeling environment supports the dependency association of operators in the DAG graph mode; supports multiple versions of models, password protection, and dependent resource management. The general operator library provides various operators of common operator types, which are specifically divided into data preprocessing operator sets, statistical analysis operator sets, machine learning operator sets, dedicated signal processing operator sets, decision fusion operator sets, etc. Provide parameter configuration and transmission functions for each operator; support computing and training modes, and be able to record and view operation history. The computing analysis operator and model library model management also integrates integrated multi-sensor fusion algorithms for multi-source heterogeneous data processing, and the multi-sensor fusion algorithm is a fusion algorithm for feedback asynchronous sampling data. Computing task scheduling and monitoring are used to provide an environment for model parsing and operation, support parsing the DAG graph of the model and use the underlying computing engine for calculation. Data access is used to support calling and accessing time series databases, in-memory databases, etc.; it is necessary to support writing feature data back to various databases of the system in real time or on a scheduled basis according to business needs.

[0158] The business middle platform is used to provide various types of microservice applications using a microservice framework, form microservice components for edge-cloud collaboration, establish an industrial application center that includes typical edge-cloud collaboration scenarios, and establish a unified industrial model library to provide services to the outside world in a standardized form.

[0159] Among them, microservice components include: container cloud, microservice framework, general middleware, tenant management, and resource management. Container cloud provides plug-in application execution environment, application layer deployment and routing, management layer system measurement, automation and policy management, interface layer command line tools, supports internal and external ecosystems for container cluster management and scheduling, and supports K8S and Docker functions.

[0160] The microservice framework provides functions such as service discovery, service registration, load balancing, routing management, API management, and service monitoring. The unified page displays the contents of different microservice governance frameworks in a unified manner.

[0161] Common middleware includes: relational database, memory data service, message queue service, etc., which provide standardized and reusable technical components for building advanced platform applications. Among them, the supported relational databases include mainstream relational databases and domestic databases such as MySQL, PostgreSQL, Oracle, and MS SQL Server. The memory database supports users to create and deploy multiple Redis high-availability clusters based on Helm, or connect to external Redis services, which are uniformly scheduled and managed by the platform. The message queue service supports users to create and deploy multiple Kafka high-availability clusters based on Helm, or connect to external Kafka services, which are uniformly scheduled and managed by the platform. The full-text search service supports users to create and deploy multiple high-availability clusters based on Helm, or connect to external ElasticSearch services, which are uniformly scheduled and managed by the platform.

[0162] Tenant management provides a complete multi-tenant system, which can divide permissions in fine-grained dimensions such as organization, user, and role for projects. Tenant management can be used to achieve full life cycle management and control of cloud tenants and users. Tenants include two types of users, ordinary tenants and administrator tenants. Ordinary tenants can operate the tenant console page. In the tenant console, ordinary tenants can create users in the tenant center according to their needs, and then assign and manage permissions to the created users. Administrator tenants operate the platform control console. Administrators can create ordinary tenants in the tenant center for users to use.

[0163] Resource management provides automated operation and management of application running resources. The platform supports multiple strategies such as exclusive mode, shared mode, and hybrid mode. The shared mode can realize full platform sharing, that is, under the "global tenant", a cluster shared by the whole platform can be created. All tenants of this cluster platform can apply for use and allocate corresponding quotas. It is generally used for K8S clusters used globally; tenant exclusive means that under non-global tenants, only "tenant exclusive" clusters can be created. Such clusters can only be applied for use and allocated corresponding quotas by projects within the tenant.

[0164] The Industrial Application Center builds 22 application scenarios in 10 categories around themes such as operation monitoring, equipment management, energy consumption optimization, quality inspection, and remote operation and maintenance, and provides corresponding edge-cloud collaborative applications and solutions. Among them, the operation monitoring scenarios include: real-time information monitoring of nuclear power plants, real-time monitoring of the status of nuclear power plant units across the country, and intelligent monitoring of radioactive waste across the country. Equipment management scenarios include: fatigue and aging management of key nuclear power equipment, vibration loosening management of core equipment, and reactor coolant leakage management. Energy consumption optimization scenarios include: real-time operation optimization of thermal power of nuclear power units, and quantitative evaluation of nuclear power operation safety. Active protection scenarios include: detection and control of low-speed and slow small aircraft in nuclear power plants, real-time intelligent monitoring of important equipment in the plant area, and real-time intelligent early warning of nuclear power plant protection. Program operation and maintenance scenarios include: intelligent operation and maintenance of large rotating machinery, and intelligent early warning of key nuclear power equipment. Environmental monitoring scenarios include: radiation and meteorological monitoring in the plant area, and online supervision of radiation safety. Safety assessment scenarios are nuclear accident consequence evaluation; emergency response scenarios include: emergency intelligent decision-making command platform, and nuclear emergency action level decision-making. Simulation scenarios include: online simulation system of nuclear power plants, virtual simulation. Quality inspection scenarios include: intelligent performance monitoring and evaluation of instrumentation and control equipment, valve status monitoring and fault diagnosis of nuclear power plants.

[0165] The industrial model library includes four major types of industrial models: parameter change model, equipment model, system model, and functional model. Each industrial model provides external services in the form of REST API. Platform developers can call REST API to call specific industrial models to improve R&D efficiency. Among them, parameter change models include: temperature change model, pressure change model, liquid level change model, dose rate change model, power change model, speed change model, etc. Equipment models include: electric pump, condenser, low-pressure heater, high-pressure heater, deaerator, steam-water separation reheater, heat exchanger, steam generator blowdown, etc. System models include: turbine control system, waste heat removal system, APG system, etc. Functional models include: feedwater pump speed control, regulator pressure control, plant-wide radiation monitoring calculation, etc.

[0166] The portal platform provides users with online transaction services and service management, and enhances the platform's professional service capabilities. It has the function of resource management, and resources include applications, models, and data. It supports multiple users to use it at the same time. After approval, the resources developed by users can be put on the application market for other users to use. The platform can also manage and verify all published resources, and forcibly remove resources from the shelves to facilitate dispute resolution, and ultimately form an open, secure, and autonomous resource sharing platform. Among them, the portal platform provides user center, resource overview, resource management, category subscription, application subscription management, system management, third-party interface access, application market, demand release, template management, and image warehouse.

[0167] User Center: The User Center is the entrance for users as resource consumers, including functions such as subscribed resources and subscription records. It allows users to manage their own resources in a unified manner, including resource type definition, resource listing / delisting, resource publishing, resource modification, and statistical reports on managed resources.

[0168] Resource overview helps users quickly retrieve the resources they need, including resource browsing, resource search, latest resource recommendations, push by preference, and allows users to purchase related resources according to their needs. Resource management, administrator function, the main responsibility is to approve the resource review submitted by users.

[0169] Category subscription and resource type management are mainly divided into three categories: data, model, and application. Administrators are allowed to define more fine-grained classifications for business areas, such as database, cache, operating system, big data, OA system, etc., to facilitate subscribers, i.e. buyers, to quickly search and query by category.

[0170] Application subscription management has the ability to control and intervene in the subscription activities of the application market. The main operations are query and cancellation. For repeated subscriptions or resource violations, subscriptions can be cancelled, and the subscribed resources cannot be used.

[0171] System management provides system management functions, including security protection, points management, etc., providing basic system security protection and management of user points flow.

[0172] Third-party interface access supports the access of third-party applications. Ordinary users will uniformly enter the relevant information of third-party applications into the application market. Since it is entered by the administrator, after successful entry and submission for release, it will be reviewed by the administrator. After the review is passed, the relevant application information can be directly previewed in the application market, and users can subscribe and collect it.

[0173] Demand release, providing a demand square function, where everyone can post demands and others can reply to them. Demand publishers can mark demands as resolved, and demands marked as resolved will no longer be open for reply and can only be viewed.

[0174] The image repository supports searching, uploading, downloading, and deleting images, and maintains images according to the projects they belong to, the levels of publicity, etc. It also supports permission management of images, and users of different projects and roles have different permissions for image operations.

[0175] The portal middle platform is also the access point for the edge-cloud collaborative system. Through the portal framework, organizational permissions, workflow, messaging services, and integrated services, it enables the information of each module of the platform to be effectively linked and provided to users through a unified user interface, thereby achieving horizontal connection of various business functions, and providing online subscription and service management windows for users at all levels of the group and plants, thereby enhancing the platform's professional service capabilities.

[0176] The portal framework provides a unified portal entrance for enterprise applications and supports customer customization; it provides unified identity authentication and supports multiple authentication methods such as username and password authentication and mobile phone verification code authentication; it supports single sign-on, menu integration, page integration, to-do integration and information display integration, and provides unified integration specifications and API interfaces; it supports access from multiple terminal devices; the open portal work desktop supports the configuration of multi-organization portal layouts and customized personal work desktops.

[0177] Organizational permissions support the multi-level authorization organizational structure and role-based authorization management system of group enterprises: support multi-level tree-shaped organizational structure, support multiple organizational trees and multiple positions for one person; support batch import and modification of organizations and personnel; support RBAC role authorization system, support the combination of application roles into business roles, and support permission inheritance; support menu permissions, page permissions, button permissions, service permissions and fine-grained data permission settings. The granularity of data permissions can be as detailed as the scope of addition, deletion, modification and query of each table and the access fields, as well as the value range of the fields; support the setting of sub-administrators to achieve multi-level management of the enterprise; the platform provides unified organizational integration specifications and API interfaces.

[0178] Workflow. In addition to supporting the BPMN-standard workflow mode, the workflow engine also extends support for workflow modes such as co-signing, rollback, forwarding, notification, recycling, jump, task batching and sub-processes; the workflow engine is seamlessly integrated with the data, services, pages, organizations, and portals of the low-code development platform, providing visual process design tools. Whether it is developers, modelers or business personnel, they can easily master and design complex business processes; it provides a wealth of process rule settings, including startup rules, flow rules, forwarding rules, notification rules, rollback rules, etc.

[0179] The message service provides a unified message push interface for enterprise applications, supports multiple message push methods such as portal, email, SMS, DingTalk, and enterprise WeChat, supports users to customize message templates, and also supports developers to customize and expand new push methods.

[0180] The single sign-on module achieves seamless connection with the portal platform, and through the single sign-on plug-in, the single sign-on system can be displayed on the unified information portal platform.

[0181] Unified identity authentication uses synchronization services to synchronize personnel account information from the company's unified authentication platform to the edge-cloud collaboration platform, thereby unifying user accounts; the edge-cloud collaboration platform provides authentication integration functions, and interacts with the identity authentication gateway according to the relevant interfaces of the company's unified authentication platform to verify the user's identity; the authentication security of the edge-cloud collaboration platform is guaranteed by the company's unified authentication platform.

[0182] The collaborative configuration tool provides collaborative task creation, collaborative task approval, and task monitoring functions to support collaboration on the cloud and edge.

[0183] It should be understood that, although the steps in the flowcharts involved in the above embodiments are displayed in sequence according to the indication of the arrows, these steps are not necessarily executed in sequence according to the order indicated by the arrows. Unless there is a clear explanation in this article, the execution of these steps is not strictly limited in order, and these steps can be executed in other orders. Moreover, at least a part of the steps in the flowcharts involved in the above embodiments may include multiple steps or multiple stages, and these steps or stages are not necessarily executed at the same time, but can be executed at different times, and the execution order of these steps or stages is not necessarily carried out in sequence, but can be executed in turn or alternately with other steps or at least a part of the steps or stages in other steps.

[0184] In one embodiment, Fig. 9 As shown, a nuclear power scene management device 900 is provided, which is applied to a first computer device 102, and includes: a scene determination module 902, an identification receiving module 904 and a result output module 906, wherein:

[0185] A scenario determination module 902 is used to determine at least one nuclear power scenario identifier to be managed; and generate a permission request according to at least one nuclear power scenario identifier;

[0186] The identification receiving module 904 is used to receive the permitted scenario identification and the nuclear power model corresponding to the permitted scenario identification returned by the cloud according to the permission request; the permitted scenario identification is an identification in at least one nuclear power scenario identification;

[0187] The result output module 906 is used to determine the nuclear power data to be processed corresponding to the permitted scenario identifier; and output the scenario management result of the nuclear power scenario corresponding to the permitted scenario identifier based on the nuclear power data to be processed and the nuclear power model.

[0188] In one embodiment, the result output module 906 is also used to determine the calculation model corresponding to the current permitted scenario identification for each permitted scenario identification among multiple permitted scenario identifications, and to process the unprocessed nuclear power data corresponding to the current permitted scenario identification through the calculation model to obtain the target nuclear power data; based on the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identification, determine the scene management result of the nuclear power scene corresponding to the current permitted scenario identification.

[0189] In one embodiment, the target nuclear power data includes target sub-data corresponding to each nuclear power equipment, and the result output module 906 is also used to determine at least one nuclear power equipment corresponding to the current permitted scenario identifier; for each of the multiple nuclear power equipment, according to the equipment identifier of the current nuclear power equipment, the current model data is filtered out from the nuclear power model corresponding to the current permitted scenario identifier, and the current target sub-data is filtered out from the target nuclear power data; the current target sub-data is compared with the current model data to obtain a comparison sub-result; according to each of the comparison sub-results, a scene management result of the nuclear power scene corresponding to the current permitted scenario identifier is obtained.

[0190] In one embodiment, Fig.10 As shown, a nuclear power scene management device 1000 is provided, which is applied to a second computer device 104, including: a request acquisition module 1002, a request review module 1004, and an identification determination module 1006, wherein:

[0191] The request acquisition module 1002 is used to acquire the permission request sent by the edge end, and parse the permission request to obtain the edge end identifier and at least one nuclear power scenario identifier;

[0192] The request review module 1004 is used to review the permission request, obtain a review result, and determine a permission scenario identifier in at least one nuclear power scenario identifier according to the review result;

[0193] The identification determination module 1006 is used to determine the nuclear power model associated with the permitted scenario identification, and send the nuclear power model and the permitted scenario identification to the edge end corresponding to the edge end identification.

[0194] In one embodiment, the identification determination module 1006 is further used to obtain a first correspondence between the nuclear power scenario identification and the nuclear power model; and determine the nuclear power model associated with each permitted scenario identification according to the first correspondence and the permitted scenario identification.

[0195] In one embodiment, the nuclear power scenario management device 1000 also includes a relationship determination module 1008, which is used to obtain multiple nuclear power scenario identifiers, and a second correspondence between model data and the nuclear power model; for each of the multiple nuclear power scenario identifiers, at least one nuclear power equipment associated with the current nuclear power scenario identifier is determined based on the third correspondence between the nuclear power scenario identifier and the nuclear power equipment; for each of the multiple nuclear power equipment, the equipment data corresponding to the current nuclear power equipment is determined to obtain a fourth correspondence between the nuclear power equipment and the equipment data; for each of the multiple equipment data, the model data corresponding to the current equipment data is determined to obtain a fifth correspondence between the equipment data and the model data; based on the second correspondence and the fifth correspondence, a sixth correspondence between the equipment data and the nuclear power model is obtained; based on the sixth correspondence, the fourth correspondence and the third correspondence, a first correspondence between the nuclear power scenario identifier and the nuclear power model is obtained.

[0196] For the specific definition of the nuclear power scene management device, please refer to the definition of the nuclear power scene management method above, which will not be repeated here. Each module in the above-mentioned nuclear power scene management device can be implemented in whole or in part by software, hardware and a combination thereof. The above-mentioned modules can be embedded in or independent of the processor in the computer device in the form of hardware, or can be stored in the memory of the computer device in the form of software, so that the processor can call and execute the operations corresponding to the above modules.

[0197] In one embodiment, a computer device is provided. The computer device may be a server, and its internal structure diagram may be as follows: Fig.10 As shown. The computer device includes a processor, a memory, an input / output interface (Input / Output, referred to as I / O) and a communication interface. Among them, the processor, the memory and the input / output interface are connected through a system bus, and the communication interface is connected to the system bus through the input / output interface. Among them, the processor of the computer device is used to provide computing and control capabilities. The memory of the computer device includes a non-volatile storage medium and an internal memory. The non-volatile storage medium stores an operating system, a computer program and a database. The internal memory provides an environment for the operation of the operating system and the computer program in the non-volatile storage medium. The database of the computer device is used to store nuclear power scenario data. The input / output interface of the computer device is used to exchange information between the processor and an external device. The communication interface of the computer device is used to communicate with an external terminal through a network connection. When the computer program is executed by the processor, a nuclear power scenario management method is implemented.

[0198] Those skilled in the art will understand that Fig.10The structure shown in the figure is only a block diagram of a part of the structure related to the solution of the present application, and does not constitute a limitation on the computer device to which the solution of the present application is applied. The specific computer device may include more or fewer components than those shown in the figure, or combine certain components, or have a different arrangement of components.

[0199] In one embodiment, a computer device is further provided, including a memory and a processor, wherein a computer program is stored in the memory, and the processor implements the steps in the above-mentioned method embodiments when executing the computer program.

[0200] In one embodiment, a computer-readable storage medium is provided, storing a computer program, which implements the steps in the above method embodiments when executed by a processor.

[0201] In one embodiment, a computer program product or computer program is provided, the computer program product or computer program includes computer instructions, the computer instructions are stored in a computer-readable storage medium. A processor of a computer device reads the computer instructions from the computer-readable storage medium, and the processor executes the computer instructions, so that the computer device performs the steps in the above-mentioned method embodiments.

[0202] A person of ordinary skill in the art can understand that all or part of the processes in the above-mentioned embodiment methods can be completed by instructing the relevant hardware through a computer program, and the computer program can be stored in a non-volatile computer-readable storage medium. When the computer program is executed, it can include the processes of the embodiments of the above-mentioned methods. Among them, any reference to the memory, database or other medium used in the embodiments provided in the present application can include at least one of non-volatile and volatile memory. Non-volatile memory can include read-only memory (ROM), magnetic tape, floppy disk, flash memory, optical memory, high-density embedded non-volatile memory, resistive random access memory (ReRAM), magnetoresistive random access memory (MRAM), ferroelectric random access memory (FRAM), phase change memory (PCM), graphene memory, etc. Volatile memory can include random access memory (RAM) or external cache memory, etc. As an illustration and not limitation, RAM can be in various forms, such as static random access memory (SRAM) or dynamic random access memory (DRAM). The database involved in each embodiment provided in this application may include at least one of a relational database and a non-relational database. Non-relational databases may include distributed databases based on blockchains, etc., but are not limited to this. The processor involved in each embodiment provided in this application may be a general-purpose processor, a central processing unit, a graphics processor, a digital signal processor, a programmable logic device, a data processing logic device based on quantum computing, etc., but are not limited to this.

[0203] The technical features of the above embodiments may be combined arbitrarily. To make the description concise, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0204] The above embodiments only express several implementation methods of the present application, and the descriptions thereof are relatively specific and detailed, but they cannot be understood as limiting the scope of the present application. It should be pointed out that, for a person of ordinary skill in the art, several variations and improvements can be made without departing from the concept of the present application, and these all belong to the protection scope of the present application. Therefore, the protection scope of the present application shall be subject to the attached claims.

Claims

1. A nuclear power scene management method, characterized in that: The method is applied to an edge end and includes: Determining at least one nuclear power scenario identifier to be managed; generating a licensing request based on the at least one nuclear power scenario identifier; Receiving a permission scenario identifier and a nuclear power model corresponding to the permission scenario identifier returned by the cloud according to the permission request; the permission scenario identifier is an identifier in the at least one nuclear power scenario identifier; the nuclear power model includes model data of at least one nuclear power equipment; Determining the to-be-processed nuclear power data corresponding to the permitted scenario identifier includes: determining at least one nuclear power equipment associated with the permitted scenario identifier according to the correspondence between the nuclear power scenario identifier and the nuclear power equipment, and determining at least one to-be-processed nuclear power equipment data associated with each nuclear power equipment; For each of the plurality of permitted scenario identifiers, a calculation model corresponding to the current permitted scenario identifier is determined, and the to-be-processed nuclear power data corresponding to the current permitted scenario identifier is processed by the calculation model to obtain target nuclear power data; Based on the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identifier, the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier is determined, including: comparing the target nuclear power data with the model data in the nuclear power model corresponding to the current permitted scenario identifier to obtain the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier.

2. The method according to claim 1, characterized in that The target nuclear power data includes target sub-data corresponding to each nuclear power equipment, and determining the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier according to the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identifier includes: Determining at least one nuclear power equipment corresponding to the current licensing scenario identifier; For each of the multiple nuclear power equipment, according to the equipment identification of the current nuclear power equipment, current model data is filtered out from the nuclear power model corresponding to the current license scenario identification, and current target sub-data is filtered out from the target nuclear power data; Comparing the current target sub-data with the current model data to obtain a comparison sub-result; According to each of the comparison sub-results, a scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier is obtained.

3. A nuclear power scene management method, characterized in that: The method is applied in the cloud, and includes: Obtaining a permission request sent by the edge end, and parsing the permission request to obtain an edge end identifier and at least one nuclear power scenario identifier; Reviewing the license request to obtain a review result, and determining a license scenario identifier in the at least one nuclear power scenario identifier according to the review result; Determine a nuclear power model associated with the permitted scenario identifier, and send the nuclear power model and the permitted scenario identifier to an edge end corresponding to the edge end identifier; the nuclear power model includes model data of at least one nuclear power equipment; Among them, the sent permitted scenario identifier is used to trigger the edge end to determine the nuclear power data to be processed corresponding to the permitted scenario identifier, including: determining at least one nuclear power equipment associated with the permitted scenario identifier and determining at least one nuclear power equipment data to be processed associated with each nuclear power equipment according to the correspondence between the nuclear power scenario identifier and the nuclear power equipment; the sent nuclear power model is used to trigger the edge end to determine the calculation model corresponding to the current permitted scenario identifier for each permitted scenario identifier in multiple permitted scenario identifiers, and process the nuclear power data to be processed corresponding to the current permitted scenario identifier through the calculation model to obtain the target nuclear power data; according to the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identifier, determine the scene management result of the nuclear power scene corresponding to the current permitted scenario identifier, including: comparing the target nuclear power data with the model data in the nuclear power model corresponding to the current permitted scenario identifier to obtain the scene management result of the nuclear power scene corresponding to the current permitted scenario identifier.

4. The method according to claim 3, characterized in that The determining of the nuclear power model associated with the permitted scenario identifier includes: Obtaining a first correspondence between a nuclear power scenario identifier and a nuclear power model; According to the first corresponding relationship and the permitted scenario identifier, a nuclear power model associated with each permitted scenario identifier is determined.

5. The method according to claim 4, characterized in that The method further comprises: Acquire multiple nuclear power scenario identifiers, and a second correspondence between the model data and the nuclear power model; For each of the multiple nuclear power scenario identifiers, determining at least one nuclear power device associated with the current nuclear power scenario identifier according to a third corresponding relationship between the nuclear power scenario identifier and the nuclear power device; For each of the plurality of nuclear power equipment, device data corresponding to the current nuclear power equipment is determined to obtain a fourth corresponding relationship between the nuclear power equipment and the device data; For each device data among the plurality of device data, determine the model data corresponding to the current device data, and obtain a fifth corresponding relationship between the device data and the model data; According to the second corresponding relationship and the fifth corresponding relationship, a sixth corresponding relationship between the equipment data and the nuclear power model is obtained; According to the sixth correspondence, the fourth correspondence and the third correspondence, a first correspondence between the nuclear power scenario identifier and the nuclear power model is obtained.

6. A nuclear power scene management system, characterized in that: Including cloud and edge, including: The edge end is used to determine at least one nuclear power scenario identifier to be managed, generate a permission request according to the at least one nuclear power scenario identifier, and send the permission request to the cloud; A cloud, configured to review the license request, obtain a review result, and determine a license scenario identifier in the at least one nuclear power scenario identifier according to the review result; The cloud is used to determine a nuclear power model associated with the permitted scenario identifier, and send the nuclear power model and the permitted scenario identifier to an edge end corresponding to the edge end identifier; the nuclear power model includes model data of at least one nuclear power equipment; The edge end is used to determine the unprocessed nuclear power data corresponding to the permitted scenario identifier, including: determining at least one nuclear power equipment associated with the permitted scenario identifier and determining at least one unprocessed nuclear power equipment data associated with each nuclear power equipment according to the corresponding relationship between the nuclear power scenario identifier and the nuclear power equipment; for each permitted scenario identifier among multiple permitted scenario identifiers, determining a calculation model corresponding to the current permitted scenario identifier, and processing the unprocessed nuclear power data corresponding to the current permitted scenario identifier through the calculation model to obtain target nuclear power data; determining the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier according to the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identifier, including: comparing the target nuclear power data with the model data in the nuclear power model corresponding to the current permitted scenario identifier to obtain the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier.

7. The system according to claim 6, characterized in that The edge terminal includes a first portal middle station, a first configuration tool, a first business middle station, and a first data middle station, wherein: The first portal middle station is used to determine at least one nuclear power scenario identifier to be managed; The first configuration tool is used to generate a license request according to the at least one nuclear power scenario identifier; The first business middle station is used to receive the permission scenario identifier and the nuclear power model corresponding to the permission scenario identifier returned by the cloud according to the permission request; the nuclear power model includes model data of at least one nuclear power equipment; The first data middle station is used to determine the to-be-processed nuclear power data corresponding to the permitted scenario identifier, including: determining at least one nuclear power equipment associated with the permitted scenario identifier according to the correspondence between the nuclear power scenario identifier and the nuclear power equipment, and determining at least one to-be-processed nuclear power equipment data associated with each nuclear power equipment; The first business middle station is used to determine the calculation model corresponding to the current permitted scenario identifier for each permitted scenario identifier among multiple permitted scenario identifiers, and process the unprocessed nuclear power data corresponding to the current permitted scenario identifier through the calculation model to obtain target nuclear power data; determine the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier based on the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identifier, including: comparing the target nuclear power data with the model data in the nuclear power model corresponding to the current permitted scenario identifier to obtain the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier.

8. The system according to claim 6, characterized in that The cloud includes a second portal platform, a second data platform, a second configuration tool, and a second business platform, wherein: The second portal platform is used to determine the nuclear power model to be updated and the nuclear power equipment associated with the nuclear power model to be updated; The second data middle station is used to obtain equipment data of nuclear power equipment associated with the nuclear power model to be updated, and obtain calculation results after calculating the equipment data; The second data middle station is used to update the nuclear power model to be updated according to the calculation result to obtain an updated nuclear power model; The second configuration tool is used to review the updated nuclear power model and send the updated nuclear power model that has passed the review to the second business middle station; The second business middle platform is used to establish a model microservice corresponding to the updated nuclear power model, and store the model microservice through a microservice architecture.

9. A nuclear power scene management device, characterized in that: The device is applied to an edge end and includes: A scenario determination module, configured to determine at least one nuclear power scenario identifier to be managed; and generate a permission request according to the at least one nuclear power scenario identifier; An identification receiving module, used to receive a permission scenario identification returned by the cloud according to the permission request and a nuclear power model corresponding to the permission scenario identification; the permission scenario identification is an identification in the at least one nuclear power scenario identification; the nuclear power model includes model data of at least one nuclear power equipment; A result output module is used to determine the nuclear power data to be processed corresponding to the permitted scenario identifier, including: determining at least one nuclear power equipment associated with the permitted scenario identifier and at least one nuclear power equipment data to be processed associated with each nuclear power equipment according to the corresponding relationship between the nuclear power scenario identifier and the nuclear power equipment; for each permitted scenario identifier among multiple permitted scenario identifiers, a calculation model corresponding to the current permitted scenario identifier is determined, and the nuclear power data to be processed corresponding to the current permitted scenario identifier is processed by the calculation model to obtain target nuclear power data; according to the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identifier, the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier is determined, including: comparing the target nuclear power data with the model data in the nuclear power model corresponding to the current permitted scenario identifier to obtain the scenario management result of the nuclear power scenario corresponding to the current permitted scenario identifier.

10. A nuclear power scene management device, characterized in that: The device is applied in the cloud, and includes: A request acquisition module, used to acquire a permission request sent by an edge terminal, and parse the permission request to obtain an edge terminal identifier and at least one nuclear power scenario identifier; a request review module, configured to review the license request, obtain a review result, and determine a license scenario identifier in the at least one nuclear power scenario identifier according to the review result; an identification determination module, configured to determine a nuclear power model associated with the permitted scenario identification, and send the nuclear power model and the permitted scenario identification to an edge end corresponding to the edge end identification; the nuclear power model includes model data of at least one nuclear power equipment; Among them, the sent permitted scenario identifier is used to trigger the edge end to determine the nuclear power data to be processed corresponding to the permitted scenario identifier, including: determining at least one nuclear power equipment associated with the permitted scenario identifier and determining at least one nuclear power equipment data to be processed associated with each nuclear power equipment according to the correspondence between the nuclear power scenario identifier and the nuclear power equipment; the sent nuclear power model is used to trigger the edge end to determine the calculation model corresponding to the current permitted scenario identifier for each permitted scenario identifier in multiple permitted scenario identifiers, and process the nuclear power data to be processed corresponding to the current permitted scenario identifier through the calculation model to obtain the target nuclear power data; according to the target nuclear power data and the nuclear power model corresponding to the current permitted scenario identifier, determine the scene management result of the nuclear power scene corresponding to the current permitted scenario identifier, including: comparing the target nuclear power data with the model data in the nuclear power model corresponding to the current permitted scenario identifier to obtain the scene management result of the nuclear power scene corresponding to the current permitted scenario identifier.

11. A computer device comprising a memory and a processor, wherein the memory stores a computer program, wherein: When the processor executes the computer program, the steps of the method according to any one of claims 1 to 5 are implemented.

12. A computer-readable storage medium having a computer program stored thereon, characterized in that: When the computer program is executed by a processor, the steps of the method according to any one of claims 1 to 5 are implemented.

13. A computer program product, comprising a computer program, characterized in that When the computer program is executed by a processor, the steps of the method according to any one of claims 1 to 5 are implemented.

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