Power grid safety and stability adaptive emergency control strategy test verification method and system
By building data mapping relationships and automated comparisons in the real-time grid simulation platform, the problem that the power grid model cannot be verified in multiple scenarios in the existing technology is solved, and the rapid update of the power grid model and the effective verification of adaptive emergency control strategies are achieved, which improves simulation efficiency and result accuracy.
Patent Information
- Application Number
- CN202510373209.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-03-27
- Publication Date
- 2025-07-11
AI Technical Summary
The existing technology cannot effectively verify the multi-scenario adaptability of the stable control system in the built power grid model, especially the nonlinearity and strong uncertainty in the new power system, resulting in low simulation efficiency and cannot meet the verification needs of the stable control strategy of the new power system.
By building a power grid model with typical operating mode based on the primary grid real-time simulation platform, establishing data mapping relationships, dynamically updating model parameters, automatically triggering fault scenarios, and automatically comparing the physical action results of the stable control device with the expected online results to verify the execution effect and effectiveness of the adaptive emergency control strategy.
It realizes fast tracking of the actual state of the power grid model, improves simulation efficiency, reduces error rate, and provides verification means for adaptive emergency control strategies in multiple scenarios to ensure the accuracy and consistency of simulation results.
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Figure CN120295117A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to a method and system for experimental verification of an adaptive emergency control strategy, and particularly to a method and system for experimental verification of a power grid security and stability adaptive emergency control strategy, belonging to the technical field of power system security and stability control. Background Art
[0002] For the hardware-in-the-loop experiment of the stability control system, the physical stability control device is mostly connected to the primary real-time simulation system. Usually, the real-time digital simulation system of the primary power grid real-time simulation platform is selected as the primary real-time simulation system for the real-time simulation of the stability control system. A dynamically operating power grid model is constructed, the power output of the power source and the load size are adjusted as needed, faults are flexibly set, and the real-time waveforms of voltage and current under normal and faulty conditions of the power grid can be output in real time, which can reflect the dynamic characteristics of the power grid after the actions of automation devices such as protection, safety automatic devices, and excitation regulators in real time. The information provided by its simulation results is rich, and due to its real-time characteristics, it is very easy to realize for observing the fast transient process of high-voltage direct current transmission, and it is an excellent tool for constructing the laboratory simulation of the power grid security and stability control system.
[0003] However, the current hardware-in-the-loop experiment verification method has certain limitations. The main problem is that the constructed power grid model is based on a certain operation mode, and it is impossible to carry out multi-scenario verification on the stability control system. Especially considering that the new power system with a large amount of new energy has a large number of non-linear and strong uncertainties, it is necessary to further consider how to quickly adjust the power grid scenario and evaluate the adaptability of the power grid scenario; in addition, the current traditional stability control system experiment verification platform has poor accuracy of the primary power grid model and insufficient typicality of the power grid scenario, and cannot be directly used for the experimental verification of the adaptability of the stability control strategy of the new power system. Summary of the Invention
[0004] Object of the Invention: The object of the present invention is to provide a method and system for experimental verification of a power grid security and stability adaptive emergency control strategy that can improve the simulation efficiency.
[0005] Technical Solution: A method for experimental verification of a power grid security and stability adaptive emergency control strategy according to the present invention includes:
[0006] Construct power grid models of several typical operation modes based on the primary power grid real-time simulation platform, establish the mapping relationship between the real-time operation mode data issued by the online security and stability analysis integrated defense system and the power grid model parameters, and match the power grid model closest to the real-time operation mode;
[0007] Analyze the real-time operation mode data and dynamically modify the power grid model data according to the mapping relationship;
[0008] Timed processing is performed based on real-time operation mode data, enabling the power grid model to quickly track the actual power grid state and complete the update of the operation state of the power grid model;
[0009] Obtain the fault scenarios and online expected results of the adaptive emergency control strategy from the online security and stability analysis integrated defense system, and establish a power grid model simulation fault set in the primary power grid real-time simulation platform;
[0010] Automatically trigger the fault scenarios in the power grid model simulation fault set in sequence, automatically compare the physical action results of the stability control device with the online expected results, and verify the execution effect and effectiveness of the current adaptive emergency control strategy.
[0011] Furthermore, power grid models of several typical operation modes are constructed based on the primary power grid real-time simulation platform, where the model element parameters of the power grid models are preset in advance, and the variable states of the power grid models are adjusted according to real-time data.
[0012] Furthermore, the timed processing based on real-time operation mode data enables the power grid model to quickly track the actual power grid state and complete the update of the operation state of the power grid model. Specifically, within the refresh interval of the adaptive emergency control strategy, the state estimation file is automatically received and parsed through a programming language, and the operation state of the power grid model is updated according to the mapping relationship, realizing the dynamic adjustment of the operation state of the power grid model.
[0013] Furthermore, establishing a power grid model simulation fault set in the primary power grid real-time simulation platform specifically means mapping the obtained fault scenarios into code segments recognizable by the primary power grid real-time simulation platform respectively, constructing a simulation fault set covering all fault scenarios, and realizing the automatic configuration of simulation scenarios.
[0014] Furthermore, automatically triggering the scenarios in the power grid model simulation fault set in sequence specifically means that after the state of the power grid model is updated, the fault scenarios are automatically configured and the corresponding faults are triggered to complete the simulation of the corresponding scenarios, and the simulation results are automatically saved. Subsequently, the current simulation is automatically stopped and the power grid model is restarted to prepare for configuring the next fault scenario for simulation.
[0015] Furthermore, automatically comparing the physical action results of the stability control device with the online expected results to verify the execution effect and effectiveness of the current adaptive emergency control strategy specifically means that after the simulation of each fault scenario is completed, the device message is automatically obtained and compared with the online expected results. By comparing the strings in the device message with the action behaviors of the online expected results, and comparing the control quantities with the range values of the online expected results, the verification of the accuracy and consistency of the verification experimental results is completed.
[0016] Further, the model element parameters include generator, excitation, speed regulation, and line model parameters, which are fixed attributes of the power grid model.
[0017] Further, the variable states include breaker, generator output, and load dynamic parameters.
[0018] Further, updating the operating state of the power grid model according to the data mapping relationship specifically means that, based on the mapping relationship between the real-time operating data of the online security and stability analysis integrated defense system and the power grid model parameters, the model is modified through the application programming interface of the primary power grid real-time simulation platform; for the power grid model element parameters with data interfaces provided, the corresponding variables are directly adjusted without recompiling the model, while for the power grid model element parameters without data interfaces provided, according to the unique coding of each power grid model element, the corresponding parameters are modified, and the model is recompiled after the update is completed.
[0019] Based on the same inventive concept, the present invention also provides a test and verification system for power grid security and stability adaptive emergency control strategies, including:
[0020] A real-time simulation module, which is used to construct a power grid model of several typical operating modes based on the primary power grid real-time simulation platform, establish a mapping relationship between the real-time operating mode data issued by the online security and stability analysis integrated defense system and the power grid model parameters, and match the power grid model closest to the real-time operating mode;
[0021] A data mapping module, which is used to parse based on the real-time operating mode data and dynamically modify the power grid model data according to the mapping relationship;
[0022] A dynamic tracking module, which is used to perform timing processing based on the real-time operating mode data to enable the power grid model to quickly track the actual power grid state;
[0023] A fault set generation module, which is used to obtain the fault scenarios and online expected results of the adaptive emergency control strategy from the online security and stability analysis integrated defense system and establish a power grid model simulation fault set in the primary power grid real-time simulation platform;
[0024] A verification module, which is used to automatically trigger the fault scenarios in the power grid model simulation fault set in sequence, automatically compare the physical action results of the stability control device with the online expected results, and verify the execution effect and effectiveness of the current adaptive emergency control strategy.
[0025] Further, the real-time simulation module includes a model construction unit and a parameter configuration unit. The model construction unit constructs a power grid model of several typical operating modes based on the primary power grid real-time simulation platform, and the parameter configuration unit is used to preset the model element parameters of the power grid model and configure the variable states of the power grid model according to real-time data through sliders and switches.
[0026] Furthermore, the data mapping module includes a data receiving unit and a model updating unit. The data receiving unit is used to receive and parse the real-time operation mode data, and the model updating unit is used to dynamically modify the power grid model data according to the mapping relationship.
[0027] Furthermore, the dynamic tracking module includes a data capturing unit and a state updating unit. The data capturing unit is used to automatically receive and parse the state estimation file through a programming language within the adaptive emergency control strategy refresh interval, and the state updating unit is used to update the operation state of the power grid model according to the mapping relationship to achieve dynamic adjustment of the power grid operation state.
[0028] Furthermore, the fault set generation module includes a fault scenario mapping unit and a code generation unit. The fault scenario mapping unit is used to map the obtained fault scenarios into code segments recognizable by the primary power grid real-time simulation platform respectively, and the code generation unit is used to construct a simulation fault set covering all fault scenarios to achieve automatic configuration of the simulation scenario.
[0029] Furthermore, the verification module includes a fault triggering unit and a result comparison unit. The fault triggering unit is used to automatically configure a fault scenario and trigger a corresponding fault after the power grid model state is updated, complete the simulation of the corresponding scenario, and automatically save the simulation results. Subsequently, it automatically stops the current simulation and restarts the power grid model to prepare for configuring the next fault scenario for simulation; the result comparison unit is used to automatically obtain the device message after the simulation of each fault scenario is completed, and compare it with the online expected result. By comparing the action behavior of the string in the device message with the online expected result and the control quantity with the range value of the online expected result, the verification of the accuracy and consistency of the verification experiment results is completed.
[0030] Furthermore, the model component parameters include generator, excitation, speed regulation, and line model parameters, which are fixed attributes of the power grid model.
[0031] Furthermore, the variable states include breaker, generator output, and load dynamic parameters.
[0032] Furthermore, the state updating unit is used to update the operation state of the power grid model according to the data mapping relationship. Specifically, based on the mapping relationship between the real-time operation data of the online security and stability analysis integrated defense system and the power grid model parameters, the model is modified through the application programming interface of the primary power grid real-time simulation platform; for the power grid model component parameters that provide data interfaces, the corresponding variables are directly adjusted without recompiling the model, while for the power grid model component parameters that do not provide data interfaces, according to the unique coding of each power grid model component, the corresponding parameters are modified, and the model is recompiled after the update is completed.
[0033] Based on the same inventive concept, the present invention also provides a computing device, including: one or more processors, one or more memories, and one or more programs, where the programs are stored in the memory and configured to be executed by the processors, and when the programs are loaded into the processors, the steps of the method for experimental verification of the power grid security and stability adaptive emergency control strategy according to any one of the above are implemented.
[0034] Based on the same inventive concept, the present invention also provides a storage medium storing a computer program, where the computer program includes program instructions, and when the program instructions are executed by a processor, the processor is caused to execute the steps of the method for experimental verification of the power grid security and stability adaptive emergency control strategy according to any one of the above.
[0035] Advantageous effects: Compared with the prior art, the present invention has the following remarkable advantages: (1) The present invention uses automated data update to implement the switching of the power grid model operation mode, clarifies the mapping relationship of each data volume, makes the modeling work more structured, and is easy to manage and control; (2) The present invention uses automatic simulation of the fault set and result comparison, reduces the error rate, improves the simulation efficiency, and the simulation results are also easier to manage; (3) The present invention tracks the power grid operation state based on the primary power grid real-time simulation platform model, realizes the switching of the operation mode, and provides a verification means for the adaptive emergency control strategy in multiple scenarios. BRIEF DESCRIPTION OF THE DRAWINGS
[0036] Figure 1 is a flowchart of the method of the embodiment of the present invention;
[0037] Figure 2 is a flowchart of the data inverse transformation method of the embodiment of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS
[0038] In order to enable those skilled in the art to better understand the solution of the present application, the technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present application.
[0039] As shown in the appended Figure 1 drawings, the method for experimental verification of the power grid security and stability adaptive emergency control strategy in this embodiment includes:
[0040] Construct power grid models of several typical operation modes based on the primary power grid real-time simulation platform, establish the mapping relationship between the real-time operation mode data issued by the online security and stability analysis integrated defense system and the power grid model parameters, and match the power grid model closest to the real-time operation mode;
[0041] Parse based on the real-time operation mode data, and dynamically modify the power grid model data according to the mapping relationship;
[0042] Timing processing is performed based on real-time operation mode data to enable the power grid model to quickly track the actual power grid state and complete the update of the operation state of the power grid model;
[0043] Obtain the fault scenarios and online expected results of the adaptive emergency control strategy from the online security and stability analysis integrated defense system, and establish a power grid model simulation fault set in the primary power grid real-time simulation platform;
[0044] Automatically trigger the fault scenarios in the power grid model simulation fault set in sequence, automatically compare the physical action results of the stability control device with the online expected results, and verify the execution effect and effectiveness of the current adaptive emergency control strategy.
[0045] Specifically include: constructing a power grid model of several typical operation modes based on the primary power grid real-time simulation platform, directly configuring the fixed component parameters such as generators, exciters, governors, and lines in the model, and setting the variable state parameters such as breaker status, generator output, and load power through the sliders and switches in the visual interaction interface to create a dynamically adjustable power grid basic operation mode library. For different operation state spaces of the power grid, establish a mapping relationship table between the online system real-time data and the simulation model parameters, and automatically select the power grid model closest to the current online operation mode from the basic mode library as the benchmark through the topology similarity matching algorithm.
[0046] Establish a mapping relationship between the real-time operation mode data issued by the online security and stability analysis integrated defense system and the power grid model parameters, consider various factors such as the topology adjustment, active power adjustment, and reactive power adjustment of the power grid, and realize the dynamic update of the power grid model state.
[0047] By developing a power grid simulation state automatic tracking function module, receive and parse the real-time operation mode data provided by the online security and stability analysis integrated defense system in real time, and dynamically modify the power grid model data according to the mapping relationship to ensure that the simulation model is consistent with the actual power grid state.
[0048] Obtain the fault scenarios and their action results of the adaptive emergency control strategy from the online security and stability analysis integrated defense system, and configure the fault sets corresponding to the emergency control strategy respectively based on different test combinations such as the system operation state, fault point location, and fault type. Map the obtained fault scenarios into code segments recognizable by the primary power grid real-time simulation platform respectively, construct a simulation fault set covering all fault scenarios, and realize the automatic configuration of the simulation scenarios.
[0049] Build a simulation verification platform including a primary power grid real-time simulation platform, an online security and stability analysis integrated defense system, and physical devices. In the real-time simulation environment, the online security and stability analysis integrated defense system sends the adaptive emergency control strategy to the devices, and at the same time sends the collected online power grid operation data to the primary power grid real-time simulation platform to adjust the operation state of the primary power grid real-time simulation platform.
[0050] Using the application programming interface of the primary power grid real-time simulation platform, develop parameter update and automatic test software. Automatically receive and parse the state estimation file through the programming language, and update the operation state of the power grid model according to the data mapping relationship within the refresh interval of the adaptive emergency control strategy, realizing the efficient dynamic adjustment of the power grid operation state, and ensuring that the online data can update the model parameters of the primary power grid real-time simulation platform in real time.
[0051] Update the stability control system strategy according to the adaptive emergency control strategy issued by the online security and stability analysis integrated defense system. After the power grid model automatically switches to the online operation mode, automatically trigger the scenarios in the fault concentration in sequence, and automatically compare the action results of the physical stability control device with the online results. By simulating the transient operation process of the power grid, verify the response and effectiveness of the current adaptive emergency control strategy.
[0052] After each fault scenario simulation ends, the system automatically obtains the message of the physical stability control device and compares it with the online results. By comparing the string in the device message with the action behavior of the online results, and comparing the control quantity with the range value of the online results, the accuracy and consistency of the experimental results are verified, realizing the verification of the effectiveness of the adaptive emergency control strategy. The verification process is as Figure 2 shown.
[0053] Based on the same inventive concept, this embodiment also provides a power grid security and stability adaptive emergency control strategy test and verification system, including:
[0054] A real-time simulation module for constructing a power grid model of several typical operation modes based on the primary power grid real-time simulation platform, establishing a mapping relationship between the real-time operation mode data sent by the online security and stability analysis integrated defense system and the power grid model parameters, and matching the power grid model closest to the real-time operation mode;
[0055] A data mapping module for parsing based on the real-time operation mode data and dynamically modifying the power grid model data according to the mapping relationship;
[0056] A dynamic tracking module for performing timed processing based on the real-time operation mode data to enable the power grid model to quickly track the actual power grid state;
[0057] The fault set generation module is used to obtain the fault scenarios and online expected results of the adaptive emergency control strategy from the online security and stability analysis integrated defense system, and establish a power grid model simulation fault set in the primary power grid real-time simulation platform;
[0058] The verification module is used to automatically trigger the fault scenarios in the power grid model simulation fault set in sequence, automatically compare the actual action results of the stability control device with the online expected results, and verify the execution effect and effectiveness of the current adaptive emergency control strategy.
[0059] Further, the real-time simulation module includes a model construction unit and a parameter configuration unit. The model construction unit constructs power grid models of several typical operating modes based on the primary power grid real-time simulation platform. The parameter configuration unit is used to preset the model element parameters of the power grid model, and configure the variable states of the power grid model through sliders and switches according to real-time data.
[0060] Further, the data mapping module includes a data receiving unit and a model updating unit. The data receiving unit is used to receive and parse the real-time operating mode data. The model updating unit is used to dynamically modify the power grid model data according to the mapping relationship.
[0061] Further, the dynamic tracking module includes a data capture unit and a state updating unit. The data capture unit is used to automatically receive and parse the state estimation file through a programming language within the refresh interval of the adaptive emergency control strategy. The state updating unit is used to update the operating state of the power grid model according to the mapping relationship to achieve dynamic adjustment of the power grid operating state.
[0062] Further, the fault set generation module includes a fault scenario mapping unit and a code generation unit. The fault scenario mapping unit is used to map the obtained fault scenarios into code segments recognizable by the primary power grid real-time simulation platform respectively. The code generation unit is used to construct a simulation fault set covering all fault scenarios to achieve automatic configuration of simulation scenarios.
[0063] Further, the verification module includes a fault triggering unit and a result comparison unit. The fault triggering unit is used to automatically configure the fault scenario and trigger the corresponding fault after the power grid model state is updated, complete the simulation of the corresponding scenario, and automatically save the simulation results. Subsequently, it automatically stops the current simulation and restarts the power grid model to prepare for configuring the next fault scenario for simulation. The result comparison unit is used to automatically obtain the device message after the simulation of each fault scenario and compare it with the online expected results. By comparing the strings in the device message with the action behaviors of the online expected results, and comparing the control quantity with the range values of the online expected results, it completes the verification of the accuracy and consistency of the verification experiment results.
[0064] Furthermore, the model component parameters include generator, excitation, speed regulation, and line model parameters, which are fixed attributes of the power grid model.
[0065] Furthermore, the variable states include breaker, generator output, and load dynamic parameters.
[0066] Furthermore, the state update unit is used to update the operating state of the power grid model according to the data mapping relationship. Specifically, based on the mapping relationship between the real-time operating data of the online security and stability analysis integrated defense system and the power grid model parameters, model modification is performed through the application programming interface of the primary power grid real-time simulation platform; for the power grid model component parameters that provide data interfaces, the corresponding variables are directly adjusted without recompiling the model, while for the power grid model component parameters that do not provide data interfaces, the corresponding parameters are modified according to the unique coding of each power grid model component, and the model is recompiled after the update is completed.
[0067] Based on the same inventive concept, this embodiment also provides a computing device, including: one or more processors, one or more memories, and one or more programs. The programs are stored in the memories and are configured to be executed by the processors. When the programs are loaded into the processors, the steps of the method for experimental verification of the power grid security and stability adaptive emergency control strategy according to any one of the above are implemented.
[0068] Based on the same inventive concept, this embodiment also provides a storage medium storing a computer program, where the computer program includes program instructions. When the program instructions are executed by a processor, the processor is caused to execute the steps of the method for experimental verification of the power grid security and stability adaptive emergency control strategy according to any one of the above.
[0069] Although the present invention has been disclosed above with preferred embodiments, the embodiments are not intended to limit the present invention. Any equivalent changes or modifications made without departing from the spirit and scope of the present invention also belong to the protection scope of the present invention. Therefore, the protection scope of the present invention should be defined by the content defined in the claims of this application.
Claims
1. An experimental verification method for an adaptive emergency control strategy for power grid security and stability, characterized in that Including: Construct a power grid model for several typical operating modes based on a primary power grid real-time simulation platform, establish the mapping relationship between the real-time operating mode data issued by the online security and stability analysis integrated defense system and the power grid model parameters, and match the power grid model closest to the real-time operating mode; Parse based on the real-time operating mode data and dynamically modify the power grid model data according to the mapping relationship; Perform timed processing based on the real-time operating mode data to enable the power grid model to quickly track the actual power grid state and complete the update of the power grid model operating state; Obtain the fault scenarios and online expected results of the adaptive emergency control strategy from the online security and stability analysis integrated defense system, and establish a power grid model simulation fault set in the primary power grid real-time simulation platform; Automatically trigger the fault scenarios in the power grid model simulation fault set in sequence, automatically compare the actual action results of the stability control device with the online expected results, and verify the execution effect and effectiveness of the current adaptive emergency control strategy.
2. The test verification method for the power grid security and stability adaptive emergency control strategy according to claim 1, wherein When constructing a power grid model for several typical operating modes based on the primary power grid real-time simulation platform, the model element parameters of the power grid model are preset, and the variable states of the power grid model are adjusted according to real-time data.
3. The test verification method for the grid security and stability adaptive emergency control strategy according to claim 1, wherein When performing timed processing based on the real-time operating mode data to enable the power grid model to quickly track the actual power grid state and complete the update of the power grid model operating state, specifically, within the refresh interval of the adaptive emergency control strategy, automatically receive and parse the state estimation file through a programming language, and update the power grid model operating state according to the mapping relationship to achieve dynamic adjustment of the power grid model operating state.
4. The test and verification method for the grid security and stability adaptive emergency control strategy according to claim 1, wherein When establishing a power grid model simulation fault set in the primary power grid real-time simulation platform, specifically, map the obtained fault scenarios to code segments recognizable by the primary power grid real-time simulation platform respectively, construct a simulation fault set covering all fault scenarios, and achieve automatic configuration of the simulation scenarios.
5. The test verification method for the grid security and stability adaptive emergency control strategy according to claim 1, characterized in that When automatically triggering the scenarios in the power grid model simulation fault set in sequence, specifically, after the power grid model state is updated, automatically configure the fault scenarios and trigger the corresponding faults, complete the simulation of the corresponding scenarios, and automatically save the simulation results. Subsequently, automatically stop the current simulation and restart the power grid model to prepare for configuring the next fault scenario for simulation.
6. The test and verification method for the power grid security and stability adaptive emergency control strategy according to claim 1, wherein When automatically comparing the actual action results of the stability control device with the online expected results to verify the execution effect and effectiveness of the current adaptive emergency control strategy, specifically, after the simulation of each fault scenario is completed, automatically obtain the device message and compare it with the online expected results. By comparing the string in the device message with the action behavior of the online expected results, and comparing the control quantity with the range value of the online expected results, complete the verification of the accuracy and consistency of the verification experimental results.
7. The test and verification method for the grid security and stability adaptive emergency control strategy according to claim 2, characterized in that The model element parameters include generator, excitation, governor, and line model parameters, which are the fixed attributes of the power grid model.
8. The test verification method for the power grid security and stability adaptive emergency control strategy according to claim 2, characterized in that The variable states include breaker, generator output, and load dynamic parameters.
9. The method for experimental verification of the grid security and stability adaptive emergency control strategy according to claim 3, characterized in that, Updating the operating state of the power grid model according to the data mapping relationship specifically means that, based on the mapping relationship between the real-time operating data of the online security and stability analysis integrated defense system and the power grid model parameters, model modification is performed through the application programming interface of the primary power grid real-time simulation platform. For the power grid model component parameters that provide data interfaces, the corresponding variables are directly adjusted without recompiling the model. For the power grid model component parameters that do not provide data interfaces, the corresponding parameters are modified according to the unique code of each power grid model component, and the model is recompiled after the update is completed.
10. An experimental verification system for an adaptive emergency control strategy for power grid security and stability, characterized in that, It includes: A real-time simulation module, which is used to construct a power grid model of several typical operating modes based on the primary power grid real-time simulation platform, establish the mapping relationship between the real-time operating mode data issued by the online security and stability analysis integrated defense system and the power grid model parameters, and match the power grid model closest to the real-time operating mode; A data mapping module, which is used to parse based on the real-time operating mode data and dynamically modify the power grid model data according to the mapping relationship; A dynamic tracking module, which is used to perform timed processing based on the real-time operating mode data to enable the power grid model to quickly track the actual power grid state; A fault set generation module, which is used to obtain the fault scenarios and online expected results of the adaptive emergency control strategy from the online security and stability analysis integrated defense system and establish a power grid model simulation fault set in the primary power grid real-time simulation platform; A verification module, which is used to automatically trigger the fault scenarios in the power grid model simulation fault set in sequence, automatically compare the physical action results of the stability control device with the online expected results, and verify the execution effect and effectiveness of the current adaptive emergency control strategy.
11. The test and verification system for the power grid security and stability adaptive emergency control strategy according to claim 10, characterized in that, The real-time simulation module includes a model construction unit and a parameter configuration unit. The model construction unit constructs a power grid model of several typical operating modes based on the primary power grid real-time simulation platform. The parameter configuration unit is used to preset the model component parameters of the power grid model and configure the variable states of the power grid model through sliders and switches according to real-time data.
12. The test and verification system for the power grid security and stability adaptive emergency control strategy according to claim 10, wherein The data mapping module includes a data receiving unit and a model updating unit. The data receiving unit is used to receive and parse the real-time operating mode data. The model updating unit is used to dynamically modify the power grid model data according to the mapping relationship.
13. The test and verification system for the power grid security and stability adaptive emergency control strategy according to claim 10, characterized in that, The dynamic tracking module includes a data capture unit and a state updating unit. The data capture unit is used to automatically receive and parse the state estimation file through a programming language within the refresh interval of the adaptive emergency control strategy. The state updating unit is used to update the operating state of the power grid model according to the mapping relationship to achieve dynamic adjustment of the power grid operating state.
14. The test and verification system for the power grid security and stability adaptive emergency control strategy according to claim 10, wherein, The fault set generation module includes a fault scenario mapping unit and a code generation unit. The fault scenario mapping unit is used to map the obtained fault scenarios into code segments recognizable by the primary power grid real-time simulation platform respectively. The code generation unit is used to construct a simulation fault set covering all fault scenarios to achieve automatic configuration of the simulation scenarios.
15. The test and verification system for the power grid security and stability adaptive emergency control strategy according to claim 10, characterized in that, The verification module includes a fault triggering unit and a result comparison unit. The fault triggering unit is used to automatically configure a fault scenario and trigger a corresponding fault after the state of the power grid model is updated, complete the simulation of the corresponding scenario, automatically save the simulation results, then automatically stop the current simulation and restart the power grid model, and prepare to configure the next fault scenario for simulation; The result comparison unit is used to automatically obtain the device message after the simulation of each fault scenario and compare it with the online expected result. By comparing the action behavior of the string in the device message with the online expected result and the range value of the control quantity with the online expected result, the verification of the accuracy and consistency of the verification experiment result is completed.
16. The test and verification system for the power grid security and stability adaptive emergency control strategy according to claim 11, wherein The model component parameters include generator, excitation, speed regulation, and line model parameters, which are the fixed attributes of the power grid model.
17. The test and verification system for the power grid security and stability adaptive emergency control strategy according to claim 11, characterized in that, The variable states include circuit breaker, generator output, and load dynamic parameters.
18. The test and verification system for the power grid security and stability adaptive emergency control strategy according to claim 13, wherein The state update unit is used to update the operating state of the power grid model according to the data mapping relationship. Specifically, based on the mapping relationship between the real-time operation data of the online security and stability analysis integrated defense system and the power grid model parameters, the model is modified through the application programming interface of the primary power grid real-time simulation platform; for the power grid model component parameters with a data interface provided, the corresponding variables are directly adjusted without recompiling the model, while for the power grid model component parameters without a data interface provided, the corresponding parameters are modified according to the unique code of each power grid model component, and the model is recompiled after the update is completed.
19. A computing device, characterized in that, Comprising: One or more processors, one or more memories, and one or more programs, the programs are stored in the memory and configured to be executed by the processor, and when the programs are loaded into the processor, the steps of the method for experimental verification of the power grid security and stability adaptive emergency control strategy according to any one of claims 1 to 9 are implemented.
20. A storage medium, characterized in that, The storage medium stores a computer program, the computer program includes program instructions, and when the program instructions are executed by the processor, the processor is made to execute the steps of the method for experimental verification of the power grid security and stability adaptive emergency control strategy according to any one of claims 1 to 9.