Multi-scene beam allocation strategy simulation verification system and method

Abstract

The invention provides a multi-scene beam allocation strategy simulation verification system. The multi-scene beam allocation strategy simulation verification system comprises a task demand reporting module, a beam allocation strategy generation module, a scene configuration module, a simulation operation control module, a strategy deduction module, a deduction evaluation module and an interference instruction sending module. According to the system, task information is received through a task demand reporting module, an initial and imminent beam guarantee scheme is formulated by a beam allocation strategy generation module, a simulation scene is constructed through a scene configuration module, and the simulation operation control module drives the system to operate; the strategy deduction module executes deduction calculation and visualization, and the interference instruction sending module injects interference to simulate a real environment; the deduction evaluation module evaluates multi-dimensional indexes such as task satisfaction degree, resource utilization rate and user capacity. Therefore, multi-scene dynamic adaptation, intelligent resource optimization and closed-loop verification are realized, and the accuracy, robustness and practical application value of a beam allocation strategy are effectively improved.

Description

Technical Field

[0001] This invention belongs to the field of electronic information technology, and in particular relates to a simulation verification system and method for multi-scenario beam allocation strategy. Background Technology

[0002] In complex systems such as communications, radar, and satellites, beam allocation strategies are a core component for achieving efficient resource scheduling and performance optimization. Existing beam allocation strategy simulation systems are typically limited to static rules or single-scenario assumptions, lacking the ability to comprehensively verify multiple scenarios and multi-dimensional parameters. This makes it difficult to cope with the changing environmental conditions in real-world applications (such as dynamic user distribution, changes in interference sources, and multiple service requirements), leading to discrepancies between strategy design and actual deployment. For example, traditional systems may only focus on performance evaluation under static beam coverage or a single service scenario, neglecting complex interaction issues such as multi-scenario switching, dynamic resource competition, and cross-system collaboration. Furthermore, existing technologies lack in-depth support for the robustness and adaptability of strategies during simulation, making it difficult to comprehensively evaluate the reliability and optimization potential of beam allocation strategies in real-world environments.

[0003] Therefore, there is an urgent need for a simulation verification system that can integrate multi-scenario simulation, dynamic resource allocation, and multi-dimensional performance evaluation to improve the design efficiency and practical application value of beam allocation strategies. Summary of the Invention

[0004] To address the problems existing in the prior art, this invention provides a multi-scenario beam allocation strategy simulation verification system and method, which can achieve dynamic adaptation to multiple scenarios, intelligent resource optimization, and multi-dimensional performance evaluation. It solves the problems of poor adaptability and incomplete strategy verification in traditional simulation systems under complex environments, thereby improving the accuracy, robustness, and practical application value of beam allocation strategy design.

[0005] To achieve the aforementioned technical effects, this invention provides a multi-scenario beam allocation strategy simulation and verification system, comprising a task requirement reporting module, a beam allocation strategy generation module, a scenario configuration module, an interference command sending module, a strategy deduction module, a simulation operation control module, and a deduction evaluation module, wherein:

[0006] The task requirement reporting module is used to receive or create new task requirements to be guaranteed, fill in task information, and send the task information to the beam allocation strategy generation module.

[0007] The beam allocation strategy generation module is used to receive the task information during the initial planning stage, and generate an initial beam protection scheme based on the selected beam resources, beam allocation strategy preferences, priorities, and beam working modules, and send it to the scenario configuration module; and to receive the beam resource disturbance status from the strategy deduction module during the ad hoc planning stage, and dynamically generate an ad hoc allocation strategy using undisturbed resources, and send it to the strategy deduction module.

[0008] The scenario configuration module is used to receive and parse the initial beam protection scheme to complete the parameter configuration of the satellite, terminal and ground station models in the scenario, generate a scenario configuration file and send it to the simulation operation control module;

[0009] The simulation operation control module is used to receive the scene configuration file, and to complete the model deployment based on the scene configuration file and control the start, acceleration and stop of the simulation process, while providing a data interaction channel for each model in the system.

[0010] The strategy deduction module is used to perform beam protection strategy deduction calculations, store deduction data, and visualize the deduction process after the simulation starts; and when receiving an interference command from the interference command sending module, calculate the terminal link status and beam resource status after interference, and send the interference status to the beam allocation strategy generation module; and drive the model to run and display data after receiving the ad hoc allocation strategy.

[0011] The simulation evaluation module is used to retrieve simulation data from the strategy simulation module and perform evaluation calculations and result display on multi-dimensional indicators, including task satisfaction, resource utilization and user capacity.

[0012] The interference command sending module is used to configure interference parameters to generate the interference command, and send the interference command to the strategy inference module.

[0013] Furthermore, the task information includes task name, task type, business type, task start and end time, geographical environment, meteorological environment, and terminal type.

[0014] Furthermore, the task types include fixed-point tasks, trajectory tasks, and area tasks; wherein:

[0015] If the task type is a fixed-point task, the task request reporting module is also used to report task location information.

[0016] If the task type is a trajectory task, the task request reporting module is also used to draw the movement trajectory on the map.

[0017] If the task type is a regional task, the task request reporting module is also used to delineate the task area using a map.

[0018] Furthermore, the beam allocation strategy generation module includes:

[0019] An initial planning unit is used to generate the initial beam guarantee scheme during the initial planning stage.

[0020] An ad hoc planning unit is used to generate the ad hoc allocation strategy during the ad hoc planning phase.

[0021] Furthermore, the scene configuration module includes:

[0022] The protection scheme data parsing unit is used to receive and parse the initial beam protection scheme and generate a scenario input file;

[0023] The task scenario editing unit is used to complete the parameter configuration, communication relationship configuration, control relationship configuration, satellite transponder and carrier configuration, and environment configuration of the satellite, terminal, and ground station models based on the scenario input file, so as to generate the scenario configuration file.

[0024] Furthermore, the strategy deduction module includes:

[0025] The deduction model unit is used to perform deduction calculations of the beam protection strategy, calculate the state after disturbance, and drive the model to run.

[0026] The simulation data display unit is used to visualize the simulation process and perform statistical analysis and display of core simulation data;

[0027] The deduction database unit is used to store the deduction data.

[0028] Furthermore, the inference and evaluation module includes:

[0029] The indicator editing unit is used to set evaluation indicators and evaluation methods;

[0030] An evaluation calculation unit is used to retrieve the inference data according to the set evaluation method and complete the evaluation calculation to generate the evaluation result;

[0031] The evaluation results display unit is used to visually display the evaluation results in the form of a radar chart or bar chart.

[0032] Furthermore, the interference command sending module includes:

[0033] The interference parameter editing unit is used to configure the interference frequency, interference pattern, interference power, interference source location, and interference target information to generate interference information;

[0034] The instruction issuing unit is used to send the generated interference information as the interference instruction to the strategy deduction module.

[0035] Furthermore, the simulation operation control module includes:

[0036] The simulation engine unit is used to provide a simulation runtime environment, receive the scene configuration file, and complete model deployment and simulation startup.

[0037] The model data interaction unit provides a bus channel for data interaction between models.

[0038] On the other hand, the present invention also provides a simulation verification method for multi-scenario beam allocation strategies, the method being implemented based on the above-mentioned system, and including the following steps:

[0039] Step S1: Receive or create new task requirements to be guaranteed through the task requirement submission module, and fill in the task information;

[0040] Step S2: The beam allocation strategy generation module generates an initial beam assurance scheme based on task information during the initial planning stage.

[0041] Step S3: The initial beam guarantee scheme is parsed through the scene configuration module to complete the scene model configuration and generate a scene configuration file;

[0042] Step S4: Deploy the model and start the simulation based on the scenario configuration file through the simulation operation control module;

[0043] Step S5: Perform strategy deduction calculations through the strategy deduction module, and store and visualize the deduction data;

[0044] Step S6: Retrieve the simulation data through the simulation evaluation module, perform multi-dimensional indicator evaluation, and display the results;

[0045] Step S7: Configure and send interference commands through the interference command sending module;

[0046] Step S8: The strategy deduction module responds to the interference command, calculates the disturbance state, and feeds it back to the beam allocation strategy generation module;

[0047] Step S9: Generate an ad-hoc allocation strategy based on the disturbed state during the ad-hoc planning stage through the beam allocation strategy generation module;

[0048] Step S10: The strategy deduction module continues to deduce based on the ad hoc allocation strategy, and the deduction evaluation module evaluates the new deduction data.

[0049] The multi-scenario beam allocation strategy simulation verification system and method provided by this invention achieves dynamic adaptation across multiple scenarios, supports flexible switching in complex scenarios such as high-density users, multiple interference sources, and cross-domain collaboration, and effectively improves the adaptability and robustness of beam allocation strategies in dynamic environments. By introducing intelligent algorithms, dynamic optimization of beam resources is achieved, significantly improving system task satisfaction. At the same time, the system integrates multi-dimensional performance indicators such as user capacity, task satisfaction, and resource utilization, which can comprehensively verify the reliability and overall performance of the beam allocation strategy. Attached Figure Description

[0050] Figure 1 This is a schematic diagram of the structure of the simulation verification system for the multi-scenario beam allocation strategy provided in an embodiment of the present invention;

[0051] Figure 2 This is a schematic diagram of the system functional composition of the multi-scenario beam allocation strategy simulation verification system provided in an embodiment of the present invention;

[0052] Figure 3 This is a flowchart illustrating the steps of a simulation verification method for a multi-scenario beam allocation strategy provided in an embodiment of the present invention.

[0053] Figure 4 The flowchart illustrates the principle of the simulation verification method for the multi-scenario beam allocation strategy provided in an embodiment of the present invention. Detailed Implementation

[0054] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the invention.

[0055] It should be noted that references to "an embodiment," "embodiment," "example embodiment," etc., in this specification refer to the described embodiment including specific features, structures, or characteristics, but not every embodiment must include these specific features, structures, or characteristics. Furthermore, such expressions do not refer to the same embodiment. Moreover, when describing specific features, structures, or characteristics in conjunction with embodiments, whether or not explicitly described, it is indicated that incorporating such features, structures, or characteristics into other embodiments is within the knowledge of those skilled in the art.

[0056] Furthermore, certain terms are used in the specification and subsequent claims to refer to specific components or parts. Those skilled in the art will understand that manufacturers may use different names or terms to refer to the same component or part. This specification and subsequent claims do not distinguish components or parts by differences in name, but rather by differences in function. The terms "comprising" and "including" used throughout the specification and subsequent claims are open-ended and should be interpreted as "including but not limited to." Additionally, the term "connection" here includes any direct and indirect electrical connection means. Indirect electrical connection means include connections made through other means.

[0057] The following description, in conjunction with the accompanying drawings, provides a more detailed account of the multi-scenario beam allocation strategy simulation verification system and method provided in the embodiments of this application.

[0058] Example 1

[0059] Figures 1-2 This invention illustrates a multi-scenario beam allocation strategy simulation and verification system 100 provided in an embodiment of the present invention. The system includes a task requirement reporting module 10, a beam allocation strategy generation module 20, a scenario configuration module 30, an interference command sending module 40, a strategy deduction module 50, a simulation operation control module 60, and a deduction evaluation module 70, wherein:

[0060] The task requirement reporting module 10 is used to receive or create task requirements to be supported, fill in task information, and send the task information to the beam allocation strategy generation module 20. The task information includes task name, task type, service type, task start and end time, geographical environment, meteorological environment, and terminal type spectrum. In other words, the task requirement reporting module 10 is mainly used to report task requirement data to be supported. It receives or creates task requirements to be supported, fills in task information such as task name, task type, service type, task start and end time, geographical environment, meteorological environment, and terminal type spectrum, and then sends it to the beam allocation strategy generation module 20. Further, task types include fixed-point tasks, trajectory tasks, and regional tasks. Specifically: if the task type is a fixed-point task, the task requirement reporting module 10 is also used to report task location information; if the task type is a trajectory task, the task requirement reporting module 10 is also used to plot the movement trajectory on a map; if the task type is a regional task, the task requirement reporting module 10 is also used to delineate the task area on a map.

[0061] The beam allocation strategy generation module 20 is the core part of the system 100 described in this embodiment. It is mainly used to specify and optimize beam planning strategies. Specifically, during the initial planning stage, it receives the task information and, based on the selected beam resources, beam allocation strategy preferences, priorities, and beam working modules, generates an initial beam protection scheme and sends it to the scene configuration module 30. During the ad-hoc planning stage (if beam resources need to be replanned due to interference), it receives the beam resource disturbance status from the strategy deduction module 50, dynamically generates an ad-hoc allocation strategy using undisturbed resources, and sends it to the strategy deduction module 50. During implementation, in the initial planning phase, the beam allocation strategy generation module 20 processes the following: it receives the list of tasks to be guaranteed from the task requirement reporting module, selects available beam resources, selects the beam allocation strategy, priority, and beam working mode, generates a beam guarantee scheme, and sends it to the scenario configuration module 30. If a temporary interference event is triggered and some beam resources cannot be guaranteed normally under the disturbed state, the corresponding processing flow is as follows: the beam allocation strategy generation module 20 receives and automatically synchronizes the beam resource disturbance status sent by the strategy deduction module 50, generates a temporary guarantee strategy using undisturbed resources, and sends it to the strategy deduction module.

[0062] Specifically, the beam allocation strategy generation module 20 includes an initial planning unit and an ad-hoc planning unit, wherein: the initial planning unit is used to generate the initial beam guarantee scheme in the initial planning stage; and the ad-hoc planning unit is used to generate the ad-hoc allocation strategy in the ad-hoc planning stage.

[0063] The scene configuration module 30 is mainly used to configure the parameters of the models in the scene and generate the scene. By receiving and parsing the initial beam protection scheme, it completes the parameter configuration of the satellite, terminal, and ground station models in the scene, generates a scene configuration file, and sends it to the simulation operation control module 60. Specifically, the scene configuration module 30 includes a protection scheme data parsing unit and a task scenario editing unit, wherein: the protection scheme data parsing unit is used to receive and parse the initial beam protection scheme and generate a scene input file; the task scenario editing unit is used to complete the parameter configuration, communication relationship configuration, control relationship configuration, satellite transponder and carrier configuration, and environment configuration of the satellite, terminal, and ground station models according to the scene input file, so as to generate a scene configuration file and send it to the simulation operation control module 60.

[0064] The simulation operation control module 60 receives the scene configuration file to deploy the model and control the start, acceleration, and stop of the simulation process based on the scene configuration file. It also provides a data interaction channel for each model within the system. The simulation operation control module 60 provides the operating environment for the system 100 in this embodiment, primarily controlling the start, acceleration, and stop of the simulation process. Upon initial simulation startup, the simulation operation control module 60 receives the scene configuration file sent by the scene configuration module 30, completes model deployment and simulation startup, and drives the model to run.

[0065] The simulation operation control module 60 in this embodiment specifically includes a simulation engine unit and a model data interaction unit, wherein: the simulation engine unit is used to provide a simulation operation environment, receive the scene configuration file and complete model deployment and simulation startup; the model data interaction unit is used to provide a bus channel for data interaction between models.

[0066] The strategy simulation module 50 primarily implements the calculation, storage, and visualization of the beam protection strategy simulation process and core data. Upon initial simulation startup, the strategy simulation module 50 receives the simulation start command from the simulation operation control module 60, drives the model to run, and performs beam protection strategy simulation, visualizing the simulation process. If the interference command sending module 40 sends interference, the strategy simulation module 50 receives the interference command, calculates the status of the interrupted terminal link and beam resource status, and sends the status information to the beam allocation strategy generation module 20, providing a basis for its ad-hoc allocation strategy formulation. The strategy simulation module 50 receives the ad-hoc allocation strategy sent by the beam allocation strategy generation module 20, drives the model to run, and displays the data within the strategy simulation module 50. The strategy simulation module 50 stores the simulation data, providing raw analysis data for the simulation evaluation module.

[0067] Specifically, the strategy deduction module 50 includes a deduction model unit, a deduction data display unit, and a deduction database unit, wherein:

[0068] The simulation model unit is used to perform simulation calculations of beam protection strategies, calculate the state after disturbance, and drive the model to run; the simulation data display unit is used to visualize the simulation process and perform statistical analysis and display of core simulation data; the simulation database unit is used to store the simulation data.

[0069] Upon initial simulation startup, the simulation model unit receives the simulation start command from the simulation operation control module 60 and performs operational calculations and beam protection strategy simulation. If the interference command sending module 40 sends interference, the simulation model unit receives the interference command, calculates the terminal link status and beam resource status after interference, and sends the status information to the beam allocation strategy generation module 20. After the contingency protection strategy is generated, the simulation model unit receives the contingency allocation strategy sent by the beam allocation strategy generation module and performs operational calculations. The simulation data display unit receives the model calculation data, visualizes the simulation process, and performs statistical analysis and display on the core simulation data. The simulation database unit stores the simulation data, providing raw data for subsequent simulation data evaluation.

[0070] The deduction and evaluation module 70 is used to retrieve deduction data from the strategy deduction module 50 and to evaluate and calculate multi-dimensional indicators, including task satisfaction, resource utilization, and user capacity, and display the results. In this embodiment, the deduction and evaluation module 70 includes an indicator editing unit, an evaluation calculation unit, and an evaluation result display unit, wherein: the indicator editing unit is used to set evaluation indicators and evaluation methods; the evaluation calculation unit is used to retrieve deduction data according to the set evaluation methods and complete the evaluation calculation to generate evaluation results; and the evaluation result display unit is used to visually display the evaluation results in the form of a radar chart or bar chart.

[0071] Specifically, the indicator editing unit can set indicators such as task satisfaction, user capacity, and resource utilization, and define the evaluation methods for the indicators; the evaluation calculation unit retrieves the required simulation data from the strategy simulation module 50 database according to the evaluation methods set by the indicator editing unit, completes the evaluation calculation of the set indicators, and generates evaluation results; the evaluation result display unit displays the indicator evaluation results intuitively in the form of radar charts, bar charts, etc.

[0072] The interference command sending module 40 is used to configure interference parameters to generate the interference command and send the interference command to the strategy inference module; the interference parameters include information such as interference frequency, interference pattern, interference power, and interference source location.

[0073] The interference command sending module 40 in this embodiment includes an interference parameter editing unit and a command sending unit. The interference parameter editing unit is used to configure the interference frequency, interference pattern, interference power, interference source location and interference target information to generate interference information. The command sending unit is used to send the generated interference information as an interference command to the strategy deduction module 50.

[0074] The multi-scenario beam allocation strategy simulation verification system 100 provided in this embodiment sets up the protection tasks through the task requirement reporting module 10, and performs initial planning by the beam allocation strategy generation module 20; the scenario configuration module 30 transforms the strategy into specific simulation scenarios, which are then driven by the simulation operation control module 60; the strategy deduction module 50 is primarily responsible for operation calculation, data storage, and process visualization. The system innovatively introduces an interference command sending module 40 to simulate a dynamic interference environment, triggering the strategy deduction module 50 to report the interference status, thereby driving the beam allocation strategy generation module 20 to perform on-the-spot dynamic optimization, generating and executing a new protection strategy; finally, the deduction evaluation module 70 performs multi-dimensional index evaluation of the deduction data throughout the process. This embodiment achieves closed-loop verification from strategy generation, scenario simulation, dynamic interference injection, on-the-spot optimization to comprehensive evaluation, effectively improving the adaptability, robustness, and reliability of beam allocation strategies in real complex environments.

[0075] Example 2

[0076] Figures 3-4 This invention illustrates a simulation verification method for multi-scenario beam allocation strategies according to another embodiment of the present invention. This method is implemented based on the multi-scenario beam allocation strategy simulation verification system 100 described in Embodiment 1 above, and includes the following steps:

[0077] S1: Receive or create new task requirements to be guaranteed through the task requirement submission module 10, and fill in the task information;

[0078] S2: The beam allocation strategy generation module 20 generates an initial beam assurance scheme based on mission information during the initial planning stage;

[0079] S3: The initial beam protection scheme is parsed by the scene configuration module 30 to complete the scene model configuration and generate the scene configuration file;

[0080] S4: The simulation operation control module 60 deploys the model based on the scenario configuration file and starts the simulation;

[0081] S5: Perform strategy deduction calculations through the strategy deduction module 50, and store and visualize the deduction data;

[0082] S6: Retrieve simulation data through the simulation evaluation module 70, perform multi-dimensional indicator evaluation, and display the results;

[0083] S7: Configure and send interference commands via interference command sending module 40;

[0084] S8: The strategy deduction module 50 responds to the interference command, calculates the disturbance state, and feeds it back to the beam allocation strategy generation module 20.

[0085] S9: The beam allocation strategy generation module 20 generates an ad hoc allocation strategy based on the disturbed state during the ad hoc planning phase;

[0086] S10: The strategy deduction module 50 continues the deduction based on the ad hoc allocation strategy, and the deduction evaluation module 70 evaluates the new deduction data.

[0087] In practice, the specific execution flow of the method is as follows:

[0088] (1) Create or import existing task requirements to be guaranteed in the task requirement submission interface, and fill in task information such as task name, task type, business type, task start and end time, geographical environment, meteorological environment, and terminal type.

[0089] (2) In the beam allocation strategy generation interface, select the tasks to be guaranteed and the available beam resources, select the beam allocation strategy preference, priority and beam working mode, and generate the initial beam planning strategy.

[0090] (3) The scene configuration module completes the reception and parsing of the initial beam planning strategy, generates the scene input file, and completes the parameter configuration of all models in the scene accordingly, generating the scene file;

[0091] (4) The simulation operation control module receives the scene file, completes the model deployment, and starts the simulation process;

[0092] (5) The model performs simulation calculations, stores the simulation data in the database, and pushes the beam protection strategy and core simulation data to the strategy simulation module interface for visualization.

[0093] (6) The simulation and evaluation module completes the editing and setting of evaluation indicators, retrieves simulation data from the database, completes the evaluation calculation of indicators such as beam support scheme task satisfaction, resource utilization, and user capacity, and pushes them to the simulation and evaluation module interface for display.

[0094] (7) The interference command sending module completes the editing of interference parameters and sends them to the simulation model;

[0095] (8) When the simulation model receives interference information, it pushes the disturbed state to the strategy simulation module interface for visualization and pushes the disturbed resource state to the beam allocation strategy generation module for updating the available resource state.

[0096] (9) The beam allocation strategy generation module receives the status of the disturbed beam, repeats step (2), and generates an ad-hoc beam planning strategy.

[0097] (10) Repeat steps (5) to (6).

[0098] In summary, compared with the prior art, the present invention has the following beneficial effects:

[0099] I. This invention achieves dynamic adaptation across multiple scenarios, supports flexible switching in complex scenarios such as high-density users, multiple interference sources, and cross-domain collaboration, and improves the adaptability and robustness of beam allocation strategies in dynamic environments.

[0100] Second, this invention can achieve intelligent resource optimization by introducing intelligent algorithms to realize dynamic optimization and configuration of beam resources, which significantly improves the system's task satisfaction.

[0101] Third, this invention supports multi-dimensional performance evaluation, integrating multi-dimensional indicators such as user capacity, task satisfaction, and resource utilization to comprehensively verify the reliability and performance of beam allocation strategies.

[0102] It should be noted that, in this document, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such a process, method, article, or apparatus. Without further limitations, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the process, method, article, or apparatus that includes that element. Furthermore, it should be noted that the scope of the methods and apparatuses in the embodiments of the present invention is not limited to performing functions in the order shown or discussed, but may also include performing functions substantially simultaneously or in the reverse order, depending on the functions involved. For example, the described methods may be performed in a different order than described, and various steps may be added, omitted, or combined. Additionally, features described with reference to certain examples may be combined in other examples.

[0103] Of course, the present invention may have other various embodiments. Without departing from the spirit and essence of the present invention, those skilled in the art can make various corresponding changes and modifications according to the present invention, but these corresponding changes and modifications should all fall within the protection scope of the appended claims.

Claims

1. A multi-scenario beam allocation strategy simulation verification system, characterized in that, The system comprises a task demand reporting module, a beam allocation strategy generation module, a scene configuration module, an interference instruction sending module, a strategy deduction module, a simulation running control module, and a deduction evaluation module. The task demand reporting module is configured to receive or newly create a task demand to be guaranteed, fill in task information, and send the task information to the beam allocation strategy generation module. The beam allocation strategy generation module is configured to receive the task information in an initial planning stage, generate an initial beam guarantee scheme based on selected beam resources, beam allocation strategy preferences, priorities, and beam operation modules, and send the initial beam guarantee scheme to the scene configuration module; and in a real-time planning stage, receive beam resource interference states from the strategy deduction module, dynamically generate a real-time allocation strategy using non-interfered resources, and send the real-time allocation strategy to the strategy deduction module. The scene configuration module is configured to receive and analyze the initial beam guarantee scheme, complete parameter configuration of satellite, terminal, and ground station models in a scene, generate a scene configuration file, and send the scene configuration file to the simulation running control module. The simulation running control module is configured to receive the scene configuration file, complete model deployment based on the scene configuration file, and control starting, acceleration, and stopping of a simulation process, while providing data interaction channels for models in the system. The strategy deduction module is configured to, after starting simulation, perform deduction calculation of a beam guarantee strategy, store deduction data, and visually present a deduction process; and when receiving an interference instruction from the interference instruction sending module, calculate terminal link states and beam resource states after interference, and send the interference states to the beam allocation strategy generation module; and when receiving the real-time allocation strategy, drive model running and perform data display. The deduction evaluation module is configured to call deduction data from the strategy deduction module, and evaluate and calculate multi-dimensional indexes including task satisfaction, resource utilization, and user capacity, and display results. The interference instruction sending module is configured to configure interference parameters to generate the interference instruction, and send the interference instruction to the strategy deduction module.

2. The system of claim 1, wherein, The task information includes a task name, a task type, a service type, a task start and end time, a geographical environment, a meteorological environment, and a terminal type spectrum.

3. The system of claim 1, wherein, The task type includes a fixed point task, a trajectory task, and a region task. If the task type is a fixed point task, the task demand reporting module is further configured to report task position information. If the task type is a trajectory task, the task demand reporting module is further configured to draw a motion trajectory on a map. If the task type is a region task, the task demand reporting module is further configured to enclose a task region on a map.

4. The system of claim 1, wherein, The beam allocation strategy generation module comprises: An initial planning unit configured to generate the initial beam guarantee scheme in the initial planning stage. A real-time planning unit configured to generate the real-time allocation strategy in the real-time planning stage.

5. The system of claim 1, wherein, The scene configuration module comprises: A guarantee scheme data analysis unit configured to receive and analyze the initial beam guarantee scheme, and generate a scene input file. A task scenario editing unit is configured to complete parameter configuration, communication relationship configuration, management and control relationship configuration, satellite transponder and carrier configuration, and environment configuration of the satellite, terminal, and ground station model according to the scene input file, so as to generate the scene configuration file.

6. The system of claim 1, wherein, The strategy deduction module comprises: A deduction model unit is configured to perform deduction calculation of the beam protection strategy, calculate the disturbed state, and drive the model to run; A deduction data display unit is configured to visually present the deduction process and statistically analyze and display the core deduction data; A deduction database unit is configured to store the deduction data.

7. The system of claim 1, wherein, The deduction evaluation module comprises: An index editing unit is configured to set evaluation indexes and evaluation methods; An evaluation calculation unit is configured to call the deduction data according to the set evaluation methods, and complete the evaluation calculation to generate evaluation results; An evaluation result display unit is configured to visually display the evaluation results in the form of a radar chart or a column chart.

8. The system of claim 1, wherein, The interference instruction sending module comprises: An interference parameter editing unit is configured to configure interference frequency points, interference patterns, interference power, interference source positions, and interference target information to generate interference information; An instruction issuing unit is configured to send the generated interference information as the interference instruction to the strategy deduction module.

9. The system of claim 1, wherein, The simulation running control module comprises: A simulation engine unit is configured to provide a simulation running environment, receive the scene configuration file, and complete model deployment and simulation start; A model data interaction unit is configured to provide a bus channel for data interaction between models. 10.A method for simulating and verifying a multi-scenario beam allocation strategy, characterized in that, The method is implemented based on the system according to any one of claims 1-9, comprising the steps of: Step S1, receiving or newly creating a to-be-protected task demand through the task demand reporting module, and filling in the task information; Step S2, generating an initial beam protection scheme based on the task information in an initial planning stage through the beam allocation strategy generation module; Step S3, analyzing the initial beam protection scheme through the scene configuration module, completing scene model configuration, and generating a scene configuration file; Step S4, deploying the model and starting the simulation based on the scene configuration file through the simulation running control module; Step S5, performing strategy deduction calculation through the strategy deduction module, storing and visualizing the deduction data; Step S6, calling the deduction data through the deduction evaluation module, performing multi-dimensional index evaluation, and displaying the results; Step S7, configuring and sending the interference instruction through the interference instruction sending module; Step S8, calculating the disturbed state in response to the interference instruction through the strategy deduction module, and feeding back to the beam allocation strategy generation module; Step S9, generating a temporary machine allocation strategy based on the disturbed state in a temporary machine planning stage through the beam allocation strategy generation module; Step S10, continuing the deduction based on the temporary machine allocation strategy through the strategy deduction module, and evaluating the new deduction data through the deduction evaluation module.

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